{ "by_child": { "abilene_paradox": [ { "child": "abilene_paradox", "parent": "private_public_preference_divergence", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Abilene Paradox is a specialization of Private-Public Preference Divergence, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Private-Public Preference Divergence supplies the genus: A systematic gap between the distribution of privately-held preferences (or beliefs) in a group and the distribution publicly expressed or inferred, sustained because each member reads others' conformity as conviction and conforms in turn. Abilene Paradox preserves that general structure while adding its differentia: A group converges on an action no member privately endorses because each misreads the others' silence or polite assent as genuine preference, so the aggregation channel filters out exactly the disagreement that would have revealed the better option. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "absence_as_information": [ { "child": "absence_as_information", "parent": "evidence", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Absence as information is evidence carried by an expected but missing trace under a modeled absence-generating process.", "reason": "The child specializes evidence to a non-occurrence whose likelihood under competing hypotheses is discriminating. A modeled expectation and an understood absence-generating process are required; uninstrumented silence does not satisfy the genus." } ], "absence_of_evidence_vs_evidence_of_absence": [ { "child": "absence_of_evidence_vs_evidence_of_absence", "parent": "bayesian_updating", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "A named guard against a degenerate Bayesian update where the detection likelihood P(null|present) is silently set to 1; it presupposes the updating machinery and forces the omitted likelihood term.", "reason": "A named guard against a degenerate Bayesian update where the detection likelihood P(null|present) is silently set to 1; it presupposes the updating machinery and forces the omitted likelihood term. Bayesian Updating supplies the prerequisite condition: Update beliefs with evidence. Absence Of Evidence Vs Evidence Of Absence operates against that background: A null finding becomes evidence against a claim only in proportion to how likely the search was to detect the claim had it been true. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." }, { "child": "absence_of_evidence_vs_evidence_of_absence", "parent": "statistical_inference", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "'one sharp lesson' within the broad apparatus of statistical_inference \u2014 the specific asymmetry that a null counts only in proportion to detection power.", "reason": "'one sharp lesson' within the broad apparatus of statistical_inference \u2014 the specific asymmetry that a null counts only in proportion to detection power. Statistical Inference supplies the genus: Reasoning from a finite, noisy sample back to the underlying population or process while explicitly quantifying the uncertainty that sampling introduces. Absence Of Evidence Vs Evidence Of Absence preserves that general structure while adding its differentia: A null finding becomes evidence against a claim only in proportion to how likely the search was to detect the claim had it been true. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "absorbing_state_under_restricted_modality": [ { "child": "absorbing_state_under_restricted_modality", "parent": "state_and_state_transition", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "An absorbing state is a configuration in a transition system one can enter but not leave with one's modality; it presupposes the state-machine apparatus (modality-relative reachability over a transition graph).", "reason": "An absorbing state is a configuration in a transition system one can enter but not leave with one's modality; it presupposes the state-machine apparatus (modality-relative reachability over a transition graph). State and State Transition supplies the prerequisite condition: Captures system condition and evolution. Absorbing State Under Restricted Modality operates against that background: A state one can enter but not leave with one's available modality of action. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "absorptive_capacity": [ { "child": "absorptive_capacity", "parent": "internalization", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Absorptive capacity is a specific kind of internalization where external knowledge is taken inward and reconstituted as endogenous capability.", "reason": "Absorptive capacity is a specialization of internalization. The general pattern relocates an element from outside an agent to inside, so what was once external is now governed from within and operates without depending on the external source. Absorptive capacity instantiates this with the element being external knowledge: the system recognizes, assimilates, and applies outside insights via internal R&D, boundary-spanning roles, and prior related knowledge. The acquired knowledge becomes endogenous capability, no longer requiring sustained external transmission to operate, which is exactly the boundary-relocation move internalization names." }, { "child": "absorptive_capacity", "parent": "learning", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Absorptive capacity is a specific kind of learning where the agent acquires capability by recognizing and assimilating external knowledge.", "reason": "Absorptive capacity is a specialization of learning. The general pattern is the durable, experience-driven self-update of an agent's internal capability such that future performance changes. Absorptive capacity instantiates this with the experience being exposure to external knowledge and the update being internal processes that recognize, assimilate, and apply it. Prior related knowledge determines what can be acquired, which is the schema-formation mechanism learning depends on. It is learning specifically organized around uptake from outside sources rather than from direct experience or instruction." }, { "child": "absorptive_capacity", "parent": "adaptive_capacity", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Ability to recognize, assimilate, and apply external knowledge is one specific latent resource within the broader reorganization-reserve that constitutes adaptive capacity.", "reason": "Ability to recognize, assimilate, and apply external knowledge is one specific latent resource within the broader reorganization-reserve that constitutes adaptive capacity. Adaptive Capacity supplies the genus: Ability to change. Absorptive Capacity preserves that general structure while adding its differentia: Ability to integrate knowledge. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "abstract_data_type": [ { "child": "abstract_data_type", "parent": "interface", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "An ADT 'includes the interface but is richer' \u2014 a behavioural contract (interface signatures PLUS invariants/laws) with a conformance relation and substitutability guarantee.", "reason": "An ADT 'includes the interface but is richer' \u2014 a behavioural contract (interface signatures PLUS invariants/laws) with a conformance relation and substitutability guarantee. ADT is built on interface. Interface supplies the prerequisite condition: A bounded, rule-governed surface across which two systems exchange information or control while hiding their internals, letting each evolve independently behind a stable contract. Abstract Data Type operates against that background: Specify a component by its externally observable behaviour while suppressing its implementation, so any conforming implementation is interchangeable behind the contract. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." }, { "child": "abstract_data_type", "parent": "information_hiding", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Abstract Data Type typically presupposes Information Hiding, whose structure must already obtain for the child mechanism to be meaningful or operational.", "reason": "Information Hiding supplies the prerequisite condition: Deliberately concealing internal facts behind a stable public surface to control dependencies. Abstract Data Type operates against that background: Specify a component by its externally observable behaviour while suppressing its implementation, so any conforming implementation is interchangeable behind the contract. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "abstract_work": [ { "child": "abstract_work", "parent": "abstraction", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Abstract_work is the output of an abstraction operation when the result is a content-identity carried across swappable carriers \u2014 presupposes abstraction but adds the load-bearing instance-set and identity-criterion that abstraction-in-general lacks.", "reason": "Abstract_work is the output of an abstraction operation when the result is a content-identity carried across swappable carriers \u2014 presupposes abstraction but adds the load-bearing instance-set and identity-criterion that abstraction-in-general lacks. The 0.93 similarity is parent-to-product. Abstraction supplies the prerequisite condition: Focus on core elements. Abstract Work operates against that background: A content identity that persists across its concrete carriers, with an explicit criterion for which instance-variations preserve the work and which fork a new one. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." }, { "child": "abstract_work", "parent": "type_token_distinction", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Abstract Work is the enriched work-and-carrier species of the bare type-and-token split, adding a content identity criterion, attribution, and lineage.", "reason": "Abstract Work is the enriched work-and-carrier species of the bare type-and-token split, adding a content identity criterion, attribution, and lineage. A Work is a repeatable identity distinct from its numerically distinct concrete realizations, with facts and operations routed separately to the shared identity and to each realization. The Work species adds culturally anchored content identity, a same-work boundary, producer attribution, and revision-versus-fork lineage." } ], "abstraction_in_art": [ { "child": "abstraction_in_art", "parent": "abstraction", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Abstraction in art is the specific shape abstraction takes when representational detail is stripped to isolate essential formal or conceptual properties.", "reason": "Abstraction in art is the structurally-particularized form abstraction takes in the aesthetic-creation case: the concrete original is the depictable subject, the purpose is heightened formal, emotional, or conceptual encounter, and the projection deliberately drops representational fidelity to amplify color, line, shape, and rhythm. It satisfies abstraction's three-part specification \u2014 concrete original, purpose, projection \u2014 particularized by the artistic-strategy commitment that what-remains-carries-all-the-weight." } ], "access_catchment": [ { "child": "access_catchment", "parent": "threshold", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Access catchment contains a threshold because its tolerance horizon is the critical cost value at which a candidate changes from included to excluded.", "reason": "Node, medium, and horizon jointly define the catchment; the horizon supplies the sharp membership response to time, distance, cost, latency, or effort. Threshold supplies an internal constituent: Safe vs harmful levels. Access Catchment requires that role within this mechanism: The set of users who can reach a node given friction and a tolerance horizon. Remove the parent-role and the child loses a required internal operation, even though the parent can exist outside the child. The child is therefore built from the parent rather than being a taxonomic kind of it." } ], "access_control": [ { "child": "access_control", "parent": "authority", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Access control is a specific kind of authority, exercising legitimate power to grant or deny actions on resources.", "reason": "Access control is a specialization of authority. The general pattern is legitimate power to make binding decisions that persist even when the subject would otherwise resist, residing in recognized roles rather than raw capability. Access control instantiates this with the binding decisions being authorization verdicts (grant or deny) over principal-action-resource triples, expressed in permissions, roles, or attribute rules. The policy is binding because the protected system recognizes the authorization layer's right to decide; the enforcement is legitimate domination over resource access, the Weberian shape of authority operating in computational systems." }, { "child": "access_control", "parent": "constraint", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Access control is a specific kind of constraint, restricting admissible principal-action-resource combinations to those satisfying a security policy.", "reason": "Access control is a specialization of constraint. The general pattern is a condition that restricts the set of admissible configurations to those satisfying it, with the feasible set as a first-class object. Access control instantiates this with the configurations being principal-action-resource combinations and the binding condition being a security policy: unauthorized combinations are not admissible candidates regardless of other merit. The authorization layer enforces the binding restriction at runtime, partitioning the space of attempted accesses into permitted and forbidden, which is exactly constraint's structural commitment." }, { "child": "access_control", "parent": "boundary", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Access control presupposes boundary because deciding who may cross into resources requires a demarcation between inside and outside.", "reason": "Access control determines whether a principal may perform an action on a resource, enforcing a policy that separates authorized from unauthorized access. The very operation requires a demarcation between protected and external \u2014 a boundary around the resource with controlled permeability. Boundary supplies the structural object: bounded entity, demarcation criterion, and selective crossing mechanism. Access control is then boundary specialized to digital and procedural resources, with the policy specifying the crossing rule. Without a boundary to enforce, there is no inside-outside distinction for access control to mediate." } ], "access_friction": [ { "child": "access_friction", "parent": "boundary", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "An entry-asymmetric cost paid only at the crossing of a membership boundary; it presupposes a status boundary partitioning insiders from outsiders.", "reason": "An entry-asymmetric cost paid only at the crossing of a membership boundary; it presupposes a status boundary partitioning insiders from outsiders. Boundary supplies the prerequisite condition: Defines system limits. Access Friction operates against that background: An entry-asymmetric cost paid only by those crossing a membership boundary, shaping who is present rather than who is qualified. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "accidental_vs_essential_complexity": [ { "child": "accidental_vs_essential_complexity", "parent": "complexity", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Accidental Vs Essential Complexity is a specialization of Complexity, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Complexity supplies the genus: Measures system intricacy. Accidental Vs Essential Complexity preserves that general structure while adding its differentia: A system's complexity splits into the irreducible difficulty of the problem and the removable difficulty introduced by the chosen approach. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "accommodation": [ { "child": "accommodation", "parent": "adaptation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Accommodation is a specialization of Adaptation, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Adaptation supplies the genus: Systems adjust to conditions. Accommodation preserves that general structure while adding its differentia: Systems modify internal structure or behavior in response to external pressures. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "accountability": [ { "child": "accountability", "parent": "authority", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Accountability presupposes authority because answering for outcomes requires a recognized power-to-decide whose exercise can be traced and assessed.", "reason": "Accountability presupposes authority because the relation of answering for outcomes requires that some legitimately empowered party have exercised decision-making power whose results can be attributed and assessed. Without authority's framework of recognized binding decisions, there is no decision to answer for and no role-holder to hold answerable. Accountability operates by tracing outcomes back to authorized decision-makers and subjecting them to evaluation against the mandate their authority carries; the answerability relation is anchored to the structure of legitimate power." } ], "action_bias": [ { "child": "action_bias", "parent": "bias", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Action bias is a specific member of the bias family: the deviation toward acting over forbearing, produced by an attributional asymmetry in an accountable setting.", "reason": "Action bias is a specific member of the bias family: the deviation toward acting over forbearing, produced by an attributional asymmetry in an accountable setting. Genus-to-species. Bias supplies the genus: Systematic, directional error distinct from random noise. Action Bias preserves that general structure while adding its differentia: When acting and not acting have similar expected payoffs, decision-makers systematically prefer to act, because action is more visible and attributable than inaction, biasing choice toward doing something beyond what the payoff calculus justifies. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "activation_energy": [ { "child": "activation_energy", "parent": "constraint", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Activation energy presupposes constraint because the barrier defines a binding threshold below which the process cannot proceed.", "reason": "Activation energy is the minimum threshold of energy or effort required to initiate a process before it proceeds spontaneously. This presupposes constraint: a condition that restricts the set of admissible configurations to those satisfying it, with the feasible set as a first-class object. The barrier acts as a binding restriction on the process: configurations below the threshold are not admissible candidates regardless of other merit, partitioning the dynamics into forbidden and feasible regimes. Without constraint's framing of binding thresholds, activation energy reduces to a numeric parameter rather than a structural gatekeeper." }, { "child": "activation_energy", "parent": "state_and_state_transition", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Activation energy presupposes state and state transition because the energy threshold gates the transition between an initial state and a final state.", "reason": "Activation energy is the minimum threshold required to initiate a process before it proceeds spontaneously \u2014 the barrier separating an initial state from a final state. The construct is constitutively about state transitions: there is a starting state, an ending state energetically favorable to the starting one, and a barrier whose crossing constitutes the transition. State-and-state-transition supplies that architecture: distinct states with rule-governed transitions between them. Without an underlying state-transition framework, there is nothing for the threshold to gate and no transition for the activation energy to enable." }, { "child": "activation_energy", "parent": "mobilization", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "The trigger's threshold barrier \u2014 'one element of mobilization'.", "reason": "The trigger's threshold barrier \u2014 'one element of mobilization'. After the chemistry_materials frame is stripped away, the retained structural roles are those of Mobilization: Latent capacity is activated, channeled into directed action, and then sustained or returned to rest. Activation Energy adds the local frame and commitments expressed in its identity: The minimum input that must be supplied to push a thermodynamically favorable but stalled process past a barrier before momentum carries it to completion. The parent pattern remains recognizable without that vocabulary, while the child is the framed realization of it. That preservation test establishes decomposition rather than taxonomic subsumption." }, { "child": "activation_energy", "parent": "metastability", "type": "decompose", "flavor": "part_of", "qualifier": "strict", "reason_short": "Activation_energy is the barrier-magnitude scalar that is one of metastability's five ingredients; metastability is the whole geometry (local well and barrier and lower destination and kinetic isolation and masquerade window).", "reason": "Activation_energy is the barrier-magnitude scalar that is one of metastability's five ingredients; metastability is the whole geometry (local well and barrier and lower destination and kinetic isolation and masquerade window). After the chemistry_materials frame is stripped away, the retained structural roles are those of Metastability: A system persists in a locally stable configuration that is not the global optimum, held there by a barrier that routine disturbances cannot clear. Activation Energy adds the local frame and commitments expressed in its identity: The minimum input that must be supplied to push a thermodynamically favorable but stalled process past a barrier before momentum carries it to completion. The parent pattern remains recognizable without that vocabulary, while the child is the framed realization of it. That preservation test establishes decomposition rather than taxonomic subsumption." } ], "adaptive_radiation": [ { "child": "adaptive_radiation", "parent": "branching_and_merging", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Adaptive radiation is a high-rate branching BURST gated jointly on an opportunity-opening event, a variable source population, and a niche structure that rewards differentiation \u2014 a specialization of the general branching-and-merging topology with rate and gating and niche-structure added.", "reason": "Adaptive radiation is a high-rate branching BURST gated jointly on an opportunity-opening event, a variable source population, and a niche structure that rewards differentiation \u2014 a specialization of the general branching-and-merging topology with rate + gating + niche-structure added." }, { "child": "adaptive_radiation", "parent": "natural_selection", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Adaptive Radiation is typically a specialization of Natural Selection, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Natural Selection supplies the genus: A population of varying, heritable variants is filtered by a selection pressure so that the better-performing variants differentially reproduce or persist, shifting the population's composition over rounds \u2014 variation, selection, and retention as a substrate-neutral engine. Adaptive Radiation preserves that general structure while adding its differentia: A variable source population given access to a newly opened, niche-structured space of opportunity fans out rapidly into many specialized subtypes, then consolidates as niches saturate \u2014 a burst gated jointly on opportunity, variability, and niche structure. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "adaptive_redirection": [ { "child": "adaptive_redirection", "parent": "adaptation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Adaptive Redirection is the deliberate discontinuous-course species of adjustment to changed evidence, distinguished by preservation and redeployment from the old course.", "reason": "Adaptive Redirection is the deliberate discontinuous-course species of adjustment to changed evidence, distinguished by preservation and redeployment from the old course. A system changes its organization or behavior in response to conditions so it can continue pursuing function under a revised fit to the environment. The change selects a materially new course from a three-way option set and makes retained learning or capability from the disconfirmed course load-bearing in it." }, { "child": "adaptive_redirection", "parent": "learning", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "A redirection qualifies only when experience on the rejected course produces a durable update that is retained and used to select or execute the new course.", "reason": "A redirection qualifies only when experience on the rejected course produces a durable update that is retained and used to select or execute the new course. Adaptive Redirection is not a species of Learning; it is a course-selection event that depends on and redeploys a learning output. Remove the durable experience-driven update and the change becomes a restart, arbitrary switch, or externally forced reroute rather than adaptive redirection. Learning can occur without a course change, but this relation cannot preserve and redeploy prior evidence unless learning has already produced something durable." } ], "additive_bias": [ { "child": "additive_bias", "parent": "bias", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Additive bias is a specific member of the bias family: a direction-asymmetric search distribution over transformations that over-samples 'add' and under-visits 'remove'.", "reason": "Additive bias is a specific member of the bias family: a direction-asymmetric search distribution over transformations that over-samples 'add' and under-visits 'remove'. Bias supplies the genus: Systematic, directional error distinct from random noise. Additive Bias preserves that general structure while adding its differentia: When asked to improve a system, agents reliably reach first for adding a component and underweight removing one, so the search distribution over transformations is direction-asymmetric and long-lived systems accrete past their purpose-optimal complexity. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "adjacency_pair": [ { "child": "adjacency_pair", "parent": "absence_as_information", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "A missing projected second-pair part must itself become a detected positive signal; without noticeable absence the child source says there is no adjacency pair.", "reason": "The first move creates the expectation and the unfilled second slot supplies the non-occurrence. Timeout, conversational silence, ritual breakdown, and procedural default are substrate-specific detectors of the same constituent." }, { "child": "adjacency_pair", "parent": "setup_resolution_pair", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Adjacency Pair is Setup-Resolution Pair specialized by noticeable absence, preference asymmetry, and an explicit repair affordance.", "reason": "Adjacency Pair is Setup-Resolution Pair specialized by noticeable absence, preference asymmetry, and an explicit repair affordance. The parent supplies the genus and can occur without the child; the child preserves it while adding commitments the parent does not require." } ], "adjudication_dispute_resolution": [ { "child": "adjudication_dispute_resolution", "parent": "authority", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Adjudication and dispute resolution presupposes authority because the third party's binding determination requires legitimate power to settle contested claims.", "reason": "Adjudication and dispute resolution presupposes authority because the third party's role in examining competing claims and rendering a binding decision rests on legitimate power -- court, arbitrator, regulator, ombudsperson -- recognized as entitled to settle the dispute and enforce the outcome. Without authority's apparatus of obligations that persist against subject resistance, the adjudicator's reasoned determination has no binding force and disputants need not abide by it. Procedural legitimacy is authority earned through impartial process; adjudication is authority structured for dispute settlement. Authority supplies the prerequisite condition: The recognized, legitimate right to issue binding decisions within a defined scope, distinct from raw coercive force or mere persuasive influence. Adjudication (Dispute Resolution) operates against that background: Dispute resolution. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "adversarial_signal_imitation": [ { "child": "adversarial_signal_imitation", "parent": "signaling", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Adversarial signal imitation presupposes Signaling because it can only copy a cue whose established relation to a hidden type already causes receivers to update.", "reason": "The attacker does not create credibility from nothing; it exploits an existing signal that receivers use to infer a hidden type. Signaling supplies the cue-to-type update rule and the separating cost or constraint whose informational value the imitator attempts to borrow." } ], "adverse_selection": [ { "child": "adverse_selection", "parent": "information_asymmetry", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Adverse selection is the specific shape information asymmetry takes when hidden types skew the pool of willing participants pre-contract.", "reason": "Adverse selection is the specific shape information asymmetry takes when the unequal private knowledge concerns a type \u2014 a quality of a good, a risk profile, a willingness to repay \u2014 and the asymmetry operates before contract, sorting who shows up to transact. It is a structurally-particularized instance of one side holding material private knowledge the other cannot verify, with the added commitments that the hidden element is a fixed type rather than a chosen action, the distortion runs through self-selection of the worst-for-the-uninformed-party types into the transaction, and the equilibrium can degrade to market collapse." }, { "child": "adverse_selection", "parent": "selection", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Adverse Selection is selection specialized to hidden pre-contractual types whose unequal willingness to accept uniform terms degrades the participant pool.", "reason": "Adverse Selection contains Selection's eligible population, operative basis, differential passage, and shifted survivor composition. Potential transactors have different hidden types; uniform terms make participation more attractive to some types than others, so the pool that enters or remains is compositionally different from the eligible population. Adverse Selection adds private type information, an uninformed counterparty, pre-contract timing, an adverse direction from that counterparty's perspective, and possible iterative unraveling. Information Asymmetry remains an independent strict coordinate because generic selection need not involve unequal knowledge." } ], "agency_problem": [ { "child": "agency_problem", "parent": "delegation_of_authority", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "The agency problem presupposes delegation of authority because the principal-agent distortion only arises once decision-making is transferred to an agent.", "reason": "The agency problem presupposes delegation of authority because its entire structure requires a prior assignment of decision-making power from a principal to an agent who acts on the principal's behalf. Without that transfer of operational authority, there is no agent whose hidden interests and unobservable effort can diverge from the principal's. Delegation supplies the architecture \u2014 principal, agent, scope of decisions, accountability mechanism \u2014 that the agency problem then diagnoses as imperfect: divergence of interests plus information asymmetry yields welfare loss that contracts and monitoring can mitigate but rarely eliminate." }, { "child": "agency_problem", "parent": "information_asymmetry", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "The agency problem typically presupposes information asymmetry because misaligned interests bite when the principal cannot fully observe the agent's actions.", "reason": "The agency problem typically presupposes information asymmetry because the costly divergence between principal and agent arises chiefly when the agent's actions, effort, or private knowledge are imperfectly observable, so the principal cannot verify compliance or condition payment on inputs. Without that observational gap, contracts could be written directly on the agent's action and agency loss would largely vanish. Symmetric-information principal-agent settings can still display misaligned objectives but typically reduce to standard contracting problems; the characteristic agency problem of moral hazard and adverse selection requires asymmetric private knowledge as its operating condition." }, { "child": "agency_problem", "parent": "agency", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Agency_problem (principal-agent) PRESUPPOSES two agents, each satisfying agency's goal/world-model/action-selection triad.", "reason": "agency_problem (principal-agent) PRESUPPOSES two agents, each satisfying agency's goal/world-model/action-selection triad. It is a relational configuration built ON agency, not a kind-of agency \u2014 so the edge flavor is presupposes, not is-a." } ], "aggregate_marginal_divergence": [ { "child": "aggregate_marginal_divergence", "parent": "aggregation", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "The divergence is a diagnostic about READING an aggregate: it presupposes aggregation (the collapsing operation) and adds a heterogeneous mix, a stock/flow masking duration, and the opposite-direction-trends invariant.", "reason": "The divergence is a diagnostic about READING an aggregate: it presupposes aggregation (the collapsing operation) and adds a heterogeneous mix, a stock/flow masking duration, and the opposite-direction-trends invariant. 'presupposes aggregation but adds...'. Aggregation supplies the prerequisite condition: Deliberately collapsing many items into a single summary, choosing which information to discard to gain tractability. Aggregate-Marginal Divergence operates against that background: The aggregate trends one way while the next unit's contribution trends the other. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "aggregation": [ { "child": "aggregation", "parent": "micro_macro_linkage", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "The aggregation rule taking micro states to macro regularities.", "reason": "The aggregation rule taking micro states to macro regularities. After the statistics_experimental_design frame is stripped away, the retained structural roles are those of Micro Macro Linkage: A two-way bridge by which micro units produce macro regularities and macro conditions reshape the micro situation. Aggregation adds the local frame and commitments expressed in its identity: Deliberately collapsing many items into a single summary, choosing which information to discard to gain tractability. The parent pattern remains recognizable without that vocabulary, while the child is the framed realization of it. That preservation test establishes decomposition rather than taxonomic subsumption." } ], "alertness": [ { "child": "alertness", "parent": "attention", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Alertness is the standing-capacity position in a recognition pipeline (salience -> alertness -> attention); it conditions the noticing that attention then deploys.", "reason": "Alertness is the standing-capacity position in a recognition pipeline (salience -> alertness -> attention); it conditions the noticing that attention then deploys. It presupposes the attention apparatus while being the PREPARED state distinct from the DEPLOYED act. Attention supplies the prerequisite condition: The selective allocation of a fixed processing capacity to some inputs while the rest are filtered out, surfacing scarcity upstream of every decision. Alertness operates against that background: A standing capacity to notice, distinct from the act of attending. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "algorithm": [ { "child": "algorithm", "parent": "iteration", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "An algorithm presupposes iteration because executing a finite sequence of prescribed steps that update state until termination is the iterative pattern.", "reason": "An algorithm is a finite, definite, effective procedure that transforms inputs to outputs through an ordered sequence of mechanically-executable steps with a termination condition. This presupposes iteration: the repeated application of a step with state carried between rounds, a stopping condition, and a notion of progress. Each algorithmic step consumes the prior state and produces the next, exactly the use-of-prior-output structure iteration requires. The termination guarantee and the progress measure that distinguishes a halting algorithm from a non-halting loop are the same structural commitments iteration specifies." }, { "child": "algorithm", "parent": "function_mapping", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "An algorithm presupposes function because the procedure it specifies is precisely a mechanical way of realizing a deterministic input-to-output mapping.", "reason": "An algorithm presupposes function because the well-defined procedure it specifies makes sense only as the computational realization of a function from admissible inputs to results: same input, same output, without reference to the evaluator's state. Function supplies the single-valued dependency that the algorithm operationalizes by giving a finite, definite, effective sequence of steps that always produces the corresponding output. Without the prior availability of function as a deterministic mapping, there is no extensional behavior for the algorithmic procedure to compute, and its termination value would have no normative target." } ], "aliasing": [ { "child": "aliasing", "parent": "discretization_induced_artifact", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Aliasing is a specialization of Discretization-Induced Artifact, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Discretization-Induced Artifact supplies the genus: Converting a continuous quantity into discrete buckets produces apparent structure that is a property of the bucket boundaries rather than of the underlying phenomenon. Aliasing preserves that general structure while adding its differentia: Sampling a signal below the rate its information content demands folds distinct high-frequency states onto identical low-frequency ones, fabricating false structure that masquerades as real signal. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." }, { "child": "aliasing", "parent": "scale", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Aliasing presupposes Scale, whose structure must already obtain for the child mechanism to be meaningful or operational.", "reason": "Scale supplies the prerequisite condition: Properties change with size. Aliasing operates against that background: Sampling a signal below the rate its information content demands folds distinct high-frequency states onto identical low-frequency ones, fabricating false structure that masquerades as real signal. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "alienation": [ { "child": "alienation", "parent": "social_construction_of_reality", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Alienation presupposes the social construction of reality because the estranged element appears as external precisely through the objectivation phase of joint constitution.", "reason": "Alienation presupposes the social construction of reality because its defining inversion, that what is substantially the agent's own confronts them as external power, runs through the objectivation move at the heart of social construction: human activity produces patterns that come to be experienced as independent objective things, including by their producers. Without the prior availability of construction's externalization-objectivation-internalization cycle, there is no mechanism by which a constitutive relation could be inverted into an apparent estrangement. Alienation is the pathological reading of the same constitutive process." }, { "child": "alienation", "parent": "asymmetry", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Alienation presupposes asymmetry because the estrangement it names is a directed inversion between an agent and what is constitutively their own.", "reason": "Alienation describes a condition in which agents become estranged from their own activity, products, or species-being such that the estranged element confronts them as external, opposed, or independent. The relation is constitutively non-interchangeable: the agent is the substrate that produced the element, while the element appears as an alien power dominating the agent. This directed inversion fails the swap-test \u2014 switching agent and product changes the situation fundamentally. Alienation is asymmetry with a particular content: a subject-substrate gap where the constitutive relation reads backwards from its proper direction." } ], "allocation": [ { "child": "allocation", "parent": "scarcity", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Allocation presupposes scarcity because the assignment of finite supply across competing claimants only becomes a problem when demand exceeds supply.", "reason": "Allocation presupposes scarcity because the assignment of a limited supply across competing claimants only becomes a problem when demand exceeds supply such that giving to one denies to another. Without scarcity's structural condition that available quantity is insufficient to satisfy all simultaneous demands, no allocation choice is required \u2014 abundance permits all claims to be met without competition or trade-off. Scarcity supplies the structural-precondition that makes allocation a problem worth solving; allocation supplies the bare-assignment operation that resolves the resulting competition into a definite distribution." } ], "allometry_and_scaling_law": [ { "child": "allometry_and_scaling_law", "parent": "scaling_and_scale_dependence", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Allometry and scaling law is a specialization of scaling and scale dependence that captures cross-size variation via power-law exponents.", "reason": "Allometry and scaling law is a specialization of scaling and scale dependence. Specifically, it instantiates the qualitative-change-with-scale pattern in the quantitative subclass where the relationship between size and another property follows Y proportional to X to the b, with the exponent b carrying the scaling regime's structural fingerprint. Like other scale-dependence claims, it asserts that what governs the system shifts with size; allometry is the subclass where that shift takes the specific shape of a power law whose exponent recurs across seemingly unrelated systems." } ], "amaras_law": [ { "child": "amaras_law", "parent": "bias", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Amara's Law is bias specialized to opposite-signed forecast errors at short and long horizons around a nonlinear realization curve.", "reason": "It inherits systematic directional deviation rather than random error and adds linear projection from a salient early signal, missed near-term friction, and under-compounded long-term diffusion." } ], "ambidexterity_exploit_vs_explore": [ { "child": "ambidexterity_exploit_vs_explore", "parent": "adaptive_capacity", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Ambidexterity is a specialization of adaptive capacity in which the held reserve is the parallel ability to explore and to exploit.", "reason": "Ambidexterity is a specialization of adaptive capacity in which the latent reserve that supports reorganization is the simultaneous capability to exploit existing competencies and to explore new ones. It inherits adaptive capacity's general structure as the second-tier reserve enabling reconfiguration when disturbances exceed first-tier scope, and specializes by fixing the reserve's content to a dual capability with different structures, processes, and incentives. The exploration arm supplies novel options for reconfiguration; the exploitation arm sustains current performance during transition. Their joint maintenance is what makes the organization able to adapt without collapsing operations." } ], "amplification": [ { "child": "amplification", "parent": "founder_effect", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "The 'conservative propagation' that re-broadcasts the founding draw is an amplification step.", "reason": "The 'conservative propagation' that re-broadcasts the founding draw is an amplification step. After the physics frame is stripped away, the retained structural roles are those of Founder Effect: A small unrepresentative initial subset starts a new population through a narrow gate, and its idiosyncratic composition is amplified into the descendant's durable identity. Amplification adds the local frame and commitments expressed in its identity: Increase signal or disturbance. The parent pattern remains recognizable without that vocabulary, while the child is the framed realization of it. That preservation test establishes decomposition rather than taxonomic subsumption." } ], "analogy": [ { "child": "analogy", "parent": "comparison", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Analogy is a specialization of comparison in which the alignment rule is structural role-mapping rather than feature-matching.", "reason": "Analogy is a kind of comparison specialized by its alignment mechanism: the items compared are entire domains, and the alignment rule projects structural roles and relations from a source domain onto a target domain rather than matching surface features. It inherits comparison's commitment to placing items under a shared frame with an alignment rule producing a relational output, and supplies the specific case where commensurability is achieved through relational role-correspondence, licensing inferences in the target by transporting the source's relational structure across the mapping." }, { "child": "analogy", "parent": "abstraction", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Analogy presupposes abstraction because mapping relational roles between domains requires those roles to have been abstracted away from surface features.", "reason": "Analogy presupposes abstraction because mapping between two domains by relational role rather than surface similarity requires those roles to have been abstracted from their concrete embedding in each domain. Without abstraction's purpose-relative retention of structure \u2014 selecting load-bearing features while discarding the rest \u2014 the source domain's relational skeleton could not be lifted from its specific contents to project onto the target. Abstraction supplies the structure-extracting operation that makes the source's roles transportable; analogy supplies the cross-domain mapping that uses those abstracted roles to license inferences in the target." } ], "anchoring": [ { "child": "anchoring", "parent": "heuristic", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Anchoring is a kind of heuristic: an initial reference point yields a fast judgment that is systematically biased toward the anchor.", "reason": "Anchoring substitutes proximity-to-the-anchor for full deliberation, producing rapid numerical estimates by adjustment from an initial reference rather than by exhaustive analysis. That is the defining profile of a Heuristic \u2014 a simplified rule trading speed and cognitive cost against accuracy, with characteristic systematic error in some environments. Anchoring specializes heuristic to numeric judgment under reference-point exposure, with the predictable signature that the anchor's value pulls final answers toward it even when uninformative." }, { "child": "anchoring", "parent": "bias", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Anchoring is a specialization of bias in which the systematic displacement is toward an initial reference point that resists adjustment.", "reason": "Anchoring is a specialization of bias. Specifically, it instantiates the systematic-displacement-from-the-true-value pattern by locating the mechanism in insufficient adjustment from a salient initial value: even arbitrary or explicitly-irrelevant anchors pull subsequent judgments toward themselves in a consistent direction that more deliberation does not erase. It satisfies bias's defining signature -- a sign and offset surviving averaging -- with the offset traced to the anchor stimulus and its imperfect adjustment, distinguishing it within the broader catalog of cognitive biases." } ], "anthropomorphism": [ { "child": "anthropomorphism", "parent": "agency", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Anthropomorphism presupposes a concept of agency because it projects an agentive interpretation onto a target whose agency has not been established.", "reason": "Without an observer-side category of goal-directed agency, surface cues could prompt resemblance or pattern recognition but could not support the distinctive inference that the target intends, understands, wants, or acts for reasons." }, { "child": "anthropomorphism", "parent": "theory_of_mind", "type": "composition", "flavor": "part_of", "qualifier": "typical", "reason_short": "Theory-of-Mind inference is a typical internal mechanism of Anthropomorphism when the projected human likeness includes beliefs, desires, emotions, or understanding.", "reason": "Many central cases use a human mental-state model to explain a target's behavior, but some anthropomorphic attributions stop at human form, voice, temperament, or social role without a rich model of hidden mental states; the component is therefore typical rather than strict." } ], "anti_commons_tragedy": [ { "child": "anti_commons_tragedy", "parent": "property_rights", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "The anti-commons forms ON the property-rights substrate: it is a failure mode of a particular rights configuration (exclusion rights fragmented so finely that re-assembling consent is prohibitive).", "reason": "The anti-commons forms ON the property-rights substrate: it is a failure mode of a particular rights configuration (exclusion rights fragmented so finely that re-assembling consent is prohibitive). Presupposes property_rights as its medium." } ], "antifragility": [ { "child": "antifragility", "parent": "stressor_induced_adaptation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Antifragility is a specialization of stressor-induced adaptation in which the system's response curve to volatility is convex and gains accumulate from stress.", "reason": "Antifragility specializes stressor-induced adaptation by fixing the response shape: where the parent pattern names the general inverted relationship between short-run difficulty and long-run capacity gain, antifragility specifies a convex response curve to volatility \u2014 accelerating upside with bounded downside \u2014 so the system positively gains from disorder up to some dose. Where the parent allows linear or merely robust gain from controlled stress, antifragility's particularization requires that the curve's convexity make exposure to variability strictly better than steady conditions." } ], "applicability_scope": [ { "child": "applicability_scope", "parent": "boundary", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Applicability Scope typically presupposes Boundary, whose structure must already obtain for the child mechanism to be meaningful or operational.", "reason": "'A boundary is the inclusion-exclusion edge in the abstract; applicability scope is the boundary-declaration ATTACHED to an artifact and FORWARD-PUBLISHED for its consumers, with a scope-check at the use site.' The boundary is the edge; applicability_scope is the published, checkable envelope around it. Presupposes a boundary. Boundary supplies the prerequisite condition: Defines system limits. Applicability Scope operates against that background: An artifact publishes a bounded region of conditions under which its outputs or guarantees hold, so consumers can detect out-of-scope use before it causes harm. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "approach_avoidance_conflict": [ { "child": "approach_avoidance_conflict", "parent": "preference", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Approach-avoidance conflict is a specific kind of preference where a single goal carries both positive and negative valence simultaneously.", "reason": "Approach-avoidance conflict is a specialization of preference. The general pattern is an agent's ordering over a choice set on some evaluative dimension, with a choice set, evaluator, ordering relation, and context. Approach-avoidance instantiates this with a single goal that simultaneously holds positive and negative valence, producing approach and avoidance gradients that are functions of proximity. The ordering relation is internally conflicted: at the crossover point neither dominates, yielding oscillation rather than stable selection. It is preference with the specific structural feature that valences are coupled rather than aligned on a single dimension." }, { "child": "approach_avoidance_conflict", "parent": "trade_offs", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Approach-avoidance conflict is a specialization of trade-offs in which the conflicting valences are bound to a single goal rather than spread across options.", "reason": "Approach-avoidance conflict is a specialization of trade-offs. Specifically, it instantiates the multidimensional-coupling pattern -- two valued dimensions improving one requires worsening the other -- with the additional structure that both dimensions attach to the same goal: the same choice promises simultaneous reward and cost. Like other trade-offs, it precludes a single-dimensional ranking; approach-avoidance is the intrapersonal subclass where gradient steepness as a function of proximity generates the characteristic oscillation rather than a static frontier." } ], "approximation": [ { "child": "approximation", "parent": "representation", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Approximation is the specific shape representation takes when the medium deliberately differs from the target by a bounded, named error.", "reason": "Representation is the structured mapping of a target onto a medium that preserves selected features under a stated convention. Approximation is the particular shape this mapping takes when the convention is explicit error-tolerance: a tractable surrogate stands in for the intractable target, and the gap between them is controlled and named \u2014 strict bound, asymptotic estimate, or probabilistic guarantee. It is a structurally-particularized instance of representation in which the faithfulness claim is explicitly weakened to a known tolerance the use case can absorb." } ], "arbitrage_finance": [ { "child": "arbitrage_finance", "parent": "arbitrage_generalized", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Financial arbitrage is a specialization of generalized arbitrage in which the boundary being exploited is between asset markets or contract types.", "reason": "Financial arbitrage is a specialization of generalized arbitrage in which the boundary across which discrepancies are exploited is between markets, platforms, or contract types for the same or economically equivalent asset, and the discrepancy is a price gap. It inherits the general pattern of systematically exploiting differentials across boundaries to capture value while pushing toward convergence, and specializes by fixing the units to prices, the boundaries to financial venues, and the exploitation to simultaneous purchase-and-sale yielding near-risk-free profit. The corrective action enforces price discovery, the financial analogue of arbitrage's general convergence-pressure effect." } ], "arbitrage_generalized": [ { "child": "arbitrage_generalized", "parent": "equilibrium", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Arbitrage (Generalized) presupposes Equilibrium, whose structure must already obtain for the child mechanism to be meaningful or operational.", "reason": "Equilibrium supplies the prerequisite condition: Balanced state. Arbitrage (Generalized) operates against that background: Exploiting a discrepancy in price, value, or perception across a boundary that friction keeps from equilibrating, extracting the spread until it closes. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "arbitrariness_of_symbolic_conventions": [ { "child": "arbitrariness_of_symbolic_conventions", "parent": "signifier_signified_duality", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Arbitrariness of symbolic conventions presupposes signifier\u2013signified duality because the arbitrary link binds the two faces of the sign.", "reason": "Arbitrariness of symbolic conventions presupposes signifier\u2013signified duality because the arbitrariness claim \u2014 that no intrinsic property of form determines meaning \u2014 is precisely a claim about the relation between signifier and signified faces. Without the two-faced sign structure that duality provides, there would be no relation whose arbitrariness could be asserted. The conventional fixing by community is the binding force that holds the two faces together in the absence of natural motivation." } ], "archetype": [ { "child": "archetype", "parent": "invariance", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "An Archetype is a kind of invariance: a structural core of a character, role, or pattern preserved across cultures, media, and historical periods.", "reason": "An archetype is a structural template \u2014 character traits, narrative functions, symbolic configurations \u2014 that recurs across cultures, periods, and media with a stable core recognizable beneath surface variation. The named feature (the structural core) is preserved under the named family of transformations (cultural, temporal, medial reskinning). That is the defining shape of Invariance. Archetype specializes invariance by fixing the preserved feature as a humanly recognizable template and the transformations as cross-cultural reinstantiation." }, { "child": "archetype", "parent": "recurrence", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "An Archetype is a kind of recurrence: the same structural template reappears across cultures, media, and historical periods.", "reason": "An archetype is identified by its reappearance: the same structural template \u2014 hero, trickster, threshold, transformation \u2014 turns up across cultures, periods, and representational media with regularities audiences recognize. That repeated reappearance of a stable pattern across instances is the defining content of Recurrence. Archetype specializes recurrence by naming the kind of pattern that recurs (a structural template for character, role, or narrative) and the dimension across which it recurs (cultural and historical instantiation)." }, { "child": "archetype", "parent": "schema", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Archetype is a specialization of schema that supplies a recurrent narrative or character template instantiable across cultural surfaces.", "reason": "Archetype is a specialization of schema. Specifically, it instantiates the type-level-representation-with-slot-structure pattern in the cultural-narrative subclass: defining traits, relations, and functions (Hero's journey beats, Trickster's transgression, Mentor's transmission) form the schema's structural core, while particular characters fill the variable roles. Like other schemas, it guides perception, interpretation, and memory of category instances; archetypes are the subclass whose template recurs across cultures and media with sufficient regularity to be recognized rapidly without explicit instruction." } ], "aspectual_individual": [ { "child": "aspectual_individual", "parent": "criteria_of_individuation", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Treating an entity-under-an-aspect as a distinct bearer presupposes rules for sameness, difference, counting, and persistence.", "reason": "Aspectual Individual claims that a base and the same base under a fixed aspect are distinct countable bearers with different existence conditions. That claim cannot be stated without prior criteria deciding what counts as one entity, when two presentations remain the same base, and what persistence conditions belong to the derived bearer. Criteria of Individuation supplies those rules without collapsing the occupied-aspect bearer into a mere role." } ], "associative_memory": [ { "child": "associative_memory", "parent": "network", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Associative memory presupposes network because content-addressable retrieval through proximity in representational space requires a connection pattern over storage units.", "reason": "Associative memory stores and retrieves items by content rather than by separate address, with proximity in representational space driving recall. Hopfield made this precise as a network of symmetrically coupled units settling into stored patterns as fixed-point attractors of an energy function. This presupposes network: a set of entities with pairwise connections studied at the level of connection pattern, where structure carries enough explanatory power to predict flows, reachability, and dynamics. Without the coupling pattern among units supplying the attractor landscape, content-addressed retrieval has no mechanism." }, { "child": "associative_memory", "parent": "search_and_retrieval", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Associative memory is a specialization of search and retrieval in which the access key is the stored content itself rather than a separate address.", "reason": "Associative memory is a specialization of search and retrieval in which storage and lookup are content-addressable: stored items are accessed through cues sharing their representational space, so a partial or noisy cue retrieves the full or linked item. It inherits the general search-and-retrieval commitment of locating relevant items from a larger store under speed and accuracy constraints, and specializes by collapsing the key-versus-address distinction: similarity in the representation space drives recall, with energy-function attractors making nearby cues converge onto stored patterns." } ], "associativity": [ { "child": "associativity", "parent": "symmetry", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Associativity is a kind of symmetry: the regrouping transformation leaves the result of a binary operation unchanged.", "reason": "Associativity says that (a o b) o c equals a o (b o c) for all elements, so the result is unchanged under the transformation that regroups the parenthesization. That is the precise algebraic claim of symmetry: invariance under a specified group of transformations, here the regrouping action on operand strings. Associativity specializes symmetry by fixing the operation as a binary combiner and the preserved feature as the value of finite combinations independent of grouping." }, { "child": "associativity", "parent": "invariance", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Associativity is a specialization of invariance whose preserved feature is the result of an operation under regrouping of operands.", "reason": "Associativity is a specialization of invariance. Specifically, it names the case in which the family of transformations is the regrouping of operands by parentheses and the preserved feature is the value produced by the binary operation. Like every invariance claim, it commits jointly to a preserved feature and the operations preserving it; associativity is the subclass where the operations are parenthesizations and the algebraic consequence -- unambiguous expressions written without explicit grouping -- underwrites group theory, monoids, semigroups, and the rest of abstract algebra." } ], "assumption": [ { "child": "assumption", "parent": "epistemic_mode_of_a_proposition", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Assumption is a specialization of Epistemic Mode Of A Proposition, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Epistemic Mode Of A Proposition supplies the genus: The same proposition can be held in different epistemic modes \u2014 asserted-fact, assumption, axiom, hypothesis, premise, belief, conjecture \u2014 and the mode, independent of the content, gates which operations are licensed on it: you may provisionally rely on an assumption, must test a hypothesis, cannot refute an axiom within its system, must discharge a premise. Assumption preserves that general structure while adding its differentia: A proposition treated as true for the purposes of some reasoning without being currently demonstrated within it, forming the load-bearing layer between what is given and what is concluded. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "asymmetric_attack_defense_cost": [ { "child": "asymmetric_attack_defense_cost", "parent": "asymmetry", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "'the specific adversarial case where the inequality is a per-unit COST RATIO on a non-discriminating channel' \u2014 a specialization of bare asymmetry with a saturation threshold and a five-move intervention catalogue.", "reason": "'the specific adversarial case where the inequality is a per-unit COST RATIO on a non-discriminating channel' \u2014 a specialization of bare asymmetry with a saturation threshold and a five-move intervention catalogue. Asymmetry supplies the genus: Directed imbalance in a relation whose two sides are not interchangeable under swap. Asymmetric Attack Defense Cost preserves that general structure while adding its differentia: On a shared channel, the cost ratio between producing harm and producing correction determines whether defense is sustainable by effort or requires structural redesign. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "asymmetric_flux": [ { "child": "asymmetric_flux", "parent": "asymmetry", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Genus-to-species \u2014 asymmetric flux is asymmetry embedded in a TRANSPORT structure, adding the accumulation-under-symmetric-forcing invariant (net transport survives equalised forcing because the boundary, not the force, governs direction).", "reason": "Genus-to-species \u2014 asymmetric flux is asymmetry embedded in a TRANSPORT structure, adding the accumulation-under-symmetric-forcing invariant (net transport survives equalised forcing because the boundary, not the force, governs direction). Asymmetry supplies the genus: Directed imbalance in a relation whose two sides are not interchangeable under swap. Asymmetric Flux preserves that general structure while adding its differentia: A direction- or channel-selective boundary drives accumulation even under symmetric forcing. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." }, { "child": "asymmetric_flux", "parent": "accumulation", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "The selective boundary's residual net transport creates a constitutive Accumulation on the favored side.", "reason": "Remove the build-up and the pattern reduces to unequal transport coefficients rather than Asymmetric Flux's defining puzzle: a quantity piles up even under apparently symmetric forcing until a sink, saturation, or back-pressure limits it." } ], "asymmetric_interface_tolerance": [ { "child": "asymmetric_interface_tolerance", "parent": "interface", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Asymmetric Interface Tolerance presupposes Interface, whose structure must already obtain for the child mechanism to be meaningful or operational.", "reason": "Interface supplies the prerequisite condition: A bounded, rule-governed surface across which two systems exchange information or control while hiding their internals, letting each evolve independently behind a stable contract. Asymmetric Interface Tolerance operates against that background: At any interface, each side's strictness in enforcing the spec is an independent design parameter, and the four combinations produce qualitatively different long-term equilibria. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." }, { "child": "asymmetric_interface_tolerance", "parent": "asymmetry", "type": "composition", "flavor": "", "qualifier": "strict", "reason_short": "Names a tunable design parameter that produces asymmetric outcomes across four combinations; it uses/produces asymmetry rather than being a kind of the general relational-imbalance prime.", "reason": "Names a tunable design parameter that produces asymmetric outcomes across four combinations; it uses/produces asymmetry rather than being a kind of the general relational-imbalance prime. Asymmetry supplies the prerequisite condition: Directed imbalance in a relation whose two sides are not interchangeable under swap. Asymmetric Interface Tolerance operates against that background: At any interface, each side's strictness in enforcing the spec is an independent design parameter, and the four combinations produce qualitatively different long-term equilibria. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "asymmetric_screening": [ { "child": "asymmetric_screening", "parent": "screening", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "A 'specific, disciplined variant' of screening \u2014 a cheap first-pass filter deliberately tuned to forbid one error type and tolerate the other, sized against a downstream-cost budget.", "reason": "A 'specific, disciplined variant' of screening \u2014 a cheap first-pass filter deliberately tuned to forbid one error type and tolerate the other, sized against a downstream-cost budget. Generic accuracy-tuned screening is not this prime. Screening supplies the genus: Inducing self-revelation. Asymmetric Screening preserves that general structure while adding its differentia: A cheap, deliberately one-sided-error filter gates an expensive authoritative check. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "asymmetry": [ { "child": "asymmetry", "parent": "symmetry", "type": "mutual", "flavor": "", "qualifier": "strict", "reason_short": "Asymmetry and symmetry are interdefinable structural complements \u2014 each is precisely what the other is not under a stated transformation.", "reason": "Symmetry and asymmetry are interdefinable complements: symmetry is invariance under a named transformation group (the swap-test passes), while asymmetry is the failure of invariance under the same swap (the swap-test fails). Neither is prior; each is the structural negation of the other relative to a specified operation, and the diagnostic for one is the diagnostic for the other inverted. The framing depends on naming the transformation; once named, the two faces \u2014 preserved vs. not preserved \u2014 exhaust the possibilities. Asymmetry is defined as follows: Directed imbalance in a relation whose two sides are not interchangeable under swap. Symmetry is defined as follows: Invariance under transformation. Each identity supplies a contrast or condition needed to state the other. Making either endpoint foundationally prior would discard that co-definition, so the relation is mutual and remains outside the acyclic directed topology." } ], "asymptotic_behavior": [ { "child": "asymptotic_behavior", "parent": "approximation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Asymptotic behaviour is 'a special, disciplined kind of approximation' \u2014 the limiting move of keeping only the dominant term and classifying by growth class.", "reason": "Asymptotic behaviour is 'a special, disciplined kind of approximation' \u2014 the limiting move of keeping only the dominant term and classifying by growth class. A specialization of approximation. Approximation supplies the genus: Good-enough representation. Asymptotic Behavior preserves that general structure while adding its differentia: In the limit, only the dominant term matters, so behavior is classified by growth class rather than exact value and small or fast-decaying contributions are discarded. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." }, { "child": "asymptotic_behavior", "parent": "scaling_and_scale_dependence", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "It is 'the sharper structural claim' / 'a powerful special case' of scale-dependent reasoning \u2014 in the limit behaviour collapses to a small ordered lattice of growth classes.", "reason": "It is 'the sharper structural claim' / 'a powerful special case' of scale-dependent reasoning \u2014 in the limit behaviour collapses to a small ordered lattice of growth classes. Scaling and Scale Dependence supplies the genus: Patterns and constraints change qualitatively across different scales. Asymptotic Behavior preserves that general structure while adding its differentia: In the limit, only the dominant term matters, so behavior is classified by growth class rather than exact value and small or fast-decaying contributions are discarded. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "attentional_capacity": [ { "child": "attentional_capacity", "parent": "attention", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Attentional capacity presupposes attention because it is the resource-pool measure of attention's selective bandwidth.", "reason": "Attentional capacity names the finite pool of selective-attention bandwidth a bounded agent can deploy at one moment. It presupposes the prior pattern of attention itself: the selective allocation of a limited cognitive resource that gates which inputs are processed deeply. Without attention as a gating mechanism enforcing scarcity, there is no resource-pool to measure and no characteristic failure modes (interference, slowing, capture) to predict. Attentional capacity quantifies the bound that attention's framing already commits to as absolute." }, { "child": "attentional_capacity", "parent": "channel_capacity", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Attentional_capacity is 'one instance among many' of the substrate-free throughput bound (alongside copper wires, axons, court dockets).", "reason": "Attentional_capacity is 'one instance among many' of the substrate-free throughput bound (alongside copper wires, axons, court dockets). channel_capacity is the general parent; attentional_capacity is the cognitive specialization. Add channel_capacity as a parent of attentional_capacity. Channel Capacity supplies the genus: Any information-bearing medium has a hard upper bound on reliable throughput that effort cannot exceed. Attentional Capacity preserves that general structure while adding its differentia: Finite pool of selection bandwidth whose exceeded supply degrades processing through interference, slowing, or capture. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "attestation": [ { "child": "attestation", "parent": "authentication", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Attestation binds identity to evidence via a verifiable tamper-evident mark, which is exactly authentication's evidence-binding structure specialized to non-repudiable marks.", "reason": "Attestation binds identity to evidence via a verifiable tamper-evident mark, which is exactly authentication's evidence-binding structure specialized to non-repudiable marks. Authentication supplies the genus: Binding an asserted identity or origin to admissible evidence through a procedure that yields a verdict, before trust, access, or weight is granted. Attestation preserves that general structure while adding its differentia: A verifiable, principal-binding, tamper-evident mark lets a third party confirm who committed to what. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "attractor_selection_and_basin_control": [ { "child": "attractor_selection_and_basin_control", "parent": "equilibrium", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Attractor selection and basin control presupposes equilibrium because the attractors being selected are stable equilibrium states in the system's dynamics.", "reason": "Attractor selection and basin control directs a system's long-term dynamics toward one of multiple possible stable states by manipulating initial conditions, boundary conditions, or basin geometry. This presupposes equilibrium: the state in which opposing forces balance so no net change occurs along balanced dimensions, with stability defined by Lyapunov-style criteria for whether perturbations decay. The attractors are precisely such stable equilibria, and the basins are the regions of state space whose trajectories converge to them. Without equilibrium's framework of balanced steady states with characterized stability, there is no attractor for control to select toward." }, { "child": "attractor_selection_and_basin_control", "parent": "state_and_state_transition", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Attractor selection and basin control presupposes state and state transition because shifting which basin a trajectory falls into requires a state space with attractors.", "reason": "Attractor selection and basin control directs a system's long-term dynamics toward one of multiple stable states by manipulating initial conditions or shifting basin boundaries in state space. The mechanism only makes sense within a state-and-state-transition framework: states are the points in the dynamic landscape, the transition relation defines flows, and attractors are subsets toward which trajectories converge. Without an underlying state space with transition dynamics, there are no basins to reshape and no attractors to select among. The control operation is parasitic on the state-machine structure." } ], "auction_theory": [ { "child": "auction_theory", "parent": "allocation", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Auction theory presupposes allocation because auctions are mechanisms for assigning scarce items to claimants under a specified rule.", "reason": "Auction theory presupposes allocation because its subject matter is the assignment of scarce items \u2014 licenses, contracts, art, financial instruments \u2014 to claimants whose willingness to pay differs and is privately known. Without allocation's prior structure of dividing limited supply among competing demands, there is no problem for an auction format to solve. Auction theory inherits the general allocation problem and supplies a family of rule structures \u2014 English, Dutch, sealed-bid, double, combinatorial \u2014 that turn bids into assignments, then studies how format choice affects efficiency, revenue, information revelation, and collusion-resistance of the resulting allocation." }, { "child": "auction_theory", "parent": "mechanism_design", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Auction theory is a specialization of mechanism design focused on rules that allocate items by extracting and comparing private bids.", "reason": "Auction theory is a specialization of mechanism design in which the desired outcome is allocation of a small set of items and the rule structure is restricted to bid-based formats that extract private valuations through competitive offers. It inherits mechanism design's general inversion \u2014 start with the desired equilibrium, search for rules implementing it under private information and self-interest \u2014 and specializes by fixing the implementation class to auctions. The analysis then asks which auction format induces equilibrium bidding strategies that deliver efficiency, revenue, or robustness, treating format as a design variable subject to the general mechanism-design framework." } ], "authority_delegation_under_uncertainty": [ { "child": "authority_delegation_under_uncertainty", "parent": "delegation_of_authority", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Prime explicitly self-describes as distinguished from \"standard delegation\" by the uncertainty condition \u2014 a genuine subtype of delegation of authority.", "reason": "Prime explicitly self-describes as distinguished from \"standard delegation\" by the uncertainty condition \u2014 a genuine subtype of delegation of authority. Delegation of Authority supplies the genus: Assign responsibility. Authority Delegation Under Uncertainty preserves that general structure while adding its differentia: Preposition decision authority at operational levels for contingencies. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "authority_handoff": [ { "child": "authority_handoff", "parent": "authority", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Authority handoff is the transition PROTOCOL by which a role's binding authority (plus its operational state) moves between occupants without breaking; it presupposes authority (the thing transferred).", "reason": "Authority handoff is the transition PROTOCOL by which a role's binding authority (plus its operational state) moves between occupants without breaking; it presupposes authority (the thing transferred). Authority is the state, handoff the transition." } ], "autonomy": [ { "child": "autonomy", "parent": "authority", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Autonomy is a claim about WHERE directive right sits (on the inner side of a scoped boundary); it presupposes authority as the substance whose location it specifies.", "reason": "autonomy is a claim about WHERE directive right sits (on the inner side of a scoped boundary); it presupposes authority as the substance whose location it specifies." } ], "autopoiesis": [ { "child": "autopoiesis", "parent": "homeostasis", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Autopoiesis is a specific kind of homeostasis where the regulated variable is the system's own component-production network maintaining its identity.", "reason": "Autopoiesis is a specialization of homeostasis. The general pattern is closed-loop self-regulation holding key variables within bands against disturbances via sensor-comparator-actuator feedback. Autopoiesis instantiates this with the regulated variable being the network of processes that produces the system's own components: the system continuously regenerates the parts that produce the network that produces them. The homeostatic loop is recursive, regulating the existence of the regulator itself rather than a separately-specified variable like temperature or glucose. It is homeostasis directed at the system's own constitutive process rather than a downstream physiological variable." }, { "child": "autopoiesis", "parent": "boundary", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Autopoiesis presupposes boundary because the self-producing system's identity requires a boundary that distinguishes it from its environment and is itself produced internally.", "reason": "Autopoiesis is the structural pattern of self-production in which a system continuously produces the components that compose it, with a boundary distinguishing it from its environment that is itself produced and maintained by the same internal processes. This presupposes boundary: the conceptual structure marking demarcation between an entity and what is outside, with the demarcation criterion, permeability, and bounded entity as integrated components. Without boundary's framing of operative inside-outside separation, the autopoietic system has no inside to maintain and no outside against which to distinguish itself, and self-production has nothing to be self about." }, { "child": "autopoiesis", "parent": "reflexivity_self_reference", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Autopoiesis is a specialization of reflexivity in which the system's components produce the very network of processes that produces them.", "reason": "Autopoiesis is a specialization of reflexivity in which the self-referential loop runs through production rather than observation: the system's components are produced by the network of processes whose persistence requires those components, so identity is constituted by the self-sustaining production loop. It inherits the general reflexivity commitment that a system's operations on itself become inputs that shape its own behavior, and specializes by making the operation component production and the closure the boundary-maintaining cycle that distinguishes the system from its environment." } ], "axiom": [ { "child": "axiom", "parent": "epistemic_mode_of_a_proposition", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Axiom is a specialization of Epistemic Mode Of A Proposition, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Axiom is another single mode (foundationally-true-within-a-system, do-not-refute-from-within). One value of the mode dimension. Epistemic Mode Of A Proposition supplies the genus: The same proposition can be held in different epistemic modes \u2014 asserted-fact, assumption, axiom, hypothesis, premise, belief, conjecture \u2014 and the mode, independent of the content, gates which operations are licensed on it: you may provisionally rely on an assumption, must test a hypothesis, cannot refute an axiom within its system, must discharge a premise. Axiom preserves that general structure while adding its differentia: A claim a system declines to derive \u2014 a load-bearing starting point accepted without proof so that the rest of the structure can be built on top of it. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "backcasting": [ { "child": "backcasting", "parent": "foresight", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Backcasting is a specific foresight method that fixes a desired future state and works backward to identify required precursor steps.", "reason": "Backcasting is a specialization of foresight whose distinctive move is starting from a defined desirable future endpoint and reasoning backward through the precursor conditions, milestones, and choices required to reach it from the present. It inherits foresight's commitment to structured anticipation that turns the future into an object of disciplined inquiry shaping present action, and supplies the specific normative-trajectory component of the methods stack \u2014 contrasting with forecasting and scenario exploration by treating the future state as given and the path to it as the inquiry." }, { "child": "backcasting", "parent": "modal_reasoning", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Backcasting is the specific shape modal reasoning takes when one fixes a desired future state and works backward through possible paths to the present.", "reason": "Modal reasoning evaluates claims across a structured space of alternative possibilities, asking what must, might, or would be the case across accessible alternatives. Backcasting is the particular shape this reasoning takes in foresight practice: a desired future state is fixed as an anchor, and the reasoner traces backward through possible trajectories that could reach it, identifying necessary intermediate conditions and decision points. It is a structurally-particularized instance of possibility-space navigation in which the target world is held fixed and the accessibility relation is run in reverse from future to present." } ], "backpressure": [ { "child": "backpressure", "parent": "feedback", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Backpressure is a specific negative-feedback loop whose controlled variable is capacity-headroom and whose effect is to throttle production toward the bottleneck rate \u2014 a specialization of feedback (the genus, which also covers positive/non-throttling loops).", "reason": "Backpressure is a specific negative-feedback loop whose controlled variable is capacity-headroom and whose effect is to throttle production toward the bottleneck rate \u2014 a specialization of feedback (the genus, which also covers positive/non-throttling loops). Feedback supplies the genus: Outputs influence inputs. Backpressure preserves that general structure while adding its differentia: A return signal from a downstream stage throttles upstream production to its own capacity, converting a one-way push into a two-way conversation that holds the system at the bottleneck's throughput instead of accumulating hidden queue debt. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "backtracking": [ { "child": "backtracking", "parent": "search_and_retrieval", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Backtracking is a disciplined SEARCH strategy (a navigated decision tree with rollback); a specialization of the general search problem.", "reason": "Backtracking is a disciplined SEARCH strategy (a navigated decision tree with rollback); a specialization of the general search problem. Search and Retrieval supplies the genus: Locate and extract information. Backtracking preserves that general structure while adding its differentia: Extend a partial solution one step at a time and reverse the most recent commitment as soon as a constraint proves it cannot succeed, preserving earlier work. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "bargaining_power": [ { "child": "bargaining_power", "parent": "asymmetry", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Bargaining power is an asymmetry specialized to unequal credible exit, delay, and replacement options that shifts attainable terms between actors.", "reason": "Bargaining power is an asymmetry specialized to unequal credible exit, delay, and replacement options that shifts attainable terms between actors. Both require a role exchange that does not preserve the operative relation: swapping the actors changes their available alternatives, dependence, and ability to determine the result. Bargaining power fixes the asymmetric quantity to the cost and credibility of nonagreement options and requires that disparity to affect negotiated, posted, or settled terms." } ], "baseline_deviation": [ { "child": "baseline_deviation", "parent": "comparison", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Baseline deviation is an observation placed in a shared frame against a declared reference and read off as a departure \u2014 a comparison specialized to (observation vs reference), promoting the departure to a first-class published fact.", "reason": "Baseline deviation is an observation placed in a shared frame against a declared reference and read off as a departure \u2014 a comparison specialized to (observation vs reference), promoting the departure to a first-class published fact. Presupposes comparison as the underlying place-in-shared-frame operation." } ], "basis": [ { "child": "basis", "parent": "set_and_membership", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Every Basis is a Set and Membership structure specialized by spanning, independence, and minimality relative to a combining rule.", "reason": "A Basis is definitionally a generating set whose members are selected from a space and whose identity is determined by binary membership. It inherits collection-as-object and element identity, then adds a combining rule, spanning, independence, and minimality. Ordinary sets need not generate a space or satisfy those constraints, so the parent remains broader." } ], "batch_processing": [ { "child": "batch_processing", "parent": "batch_size", "type": "composition", "flavor": "", "qualifier": "strict", "reason_short": "Batch processing is an operational practice that presupposes and exploits a chosen batch-size parameter; it uses the tradeoff curve rather than being a kind of size.", "reason": "Batch processing is an operational practice that presupposes and exploits a chosen batch-size parameter; it uses the tradeoff curve rather than being a kind of size. Batch Size supplies the prerequisite condition: The granularity at which a stream of work is grouped, trading setup cost amortised per item against flow, delay, risk, and feedback-lag costs that rise with the group \u2014 producing an interior optimum. Batch Processing operates against that background: Collect many discrete work-items so a costly setup is paid once and amortised over the group, trading lower per-item cost for higher per-item latency. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "batch_size": [ { "child": "batch_size", "parent": "trade_offs", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Batch size is a specific structured trade-off \u2014 a fixed-per-batch cost that amortizes against a per-item flow cost that rises, with a convex U-shaped total-cost curve (EOQ sqrt law) plus coupling-of-fate and feedback-lag riders.", "reason": "Batch size is a specific structured trade-off \u2014 a fixed-per-batch cost that amortizes against a per-item flow cost that rises, with a convex U-shaped total-cost curve (EOQ sqrt law) plus coupling-of-fate and feedback-lag riders. A computable specialization of the generic trade-off schema. Trade-offs supplies the genus: Balancing competing priorities. Batch Size preserves that general structure while adding its differentia: The granularity at which a stream of work is grouped, trading setup cost amortised per item against flow, delay, risk, and feedback-lag costs that rise with the group \u2014 producing an interior optimum. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "bayesian_cue_integration": [ { "child": "bayesian_cue_integration", "parent": "precision_weighting", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Bayesian cue integration is precision weighting specialized to several partly independent simultaneous cues about one latent quantity, with inverse-variance fusion and a lower-variance combined estimate.", "reason": "It inherits precision weighting's rule that evidence influence scales with estimated inverse variance, then adds the differentia of parallel, partly independent cues to one latent quantity and the reciprocal-of-summed-precisions variance result. Precision weighting also applies outside that parallel-cue case." } ], "bayesian_updating": [ { "child": "bayesian_updating", "parent": "inductive_reasoning", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Bayesian Updating is a kind of inductive reasoning: it ampliatively revises beliefs from particular evidence toward broader conclusions.", "reason": "Bayesian updating revises a prior probability distribution over hypotheses by combining it with the likelihood of new evidence, producing a posterior whose conclusions go beyond what the evidence logically guarantees and retain explicit residual uncertainty. That is the defining structure of Inductive Reasoning \u2014 ampliative inference from particular observations to broader generalizations with characteristic uncertainty. Bayesian updating specializes induction by supplying a formal calculus for the credit-and-debit of belief across hypotheses given new data." }, { "child": "bayesian_updating", "parent": "probability", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Bayesian updating presupposes probability because the prior-times-likelihood-equals-posterior rule operates on probability distributions over hypotheses.", "reason": "Bayesian updating presupposes probability because the entire mechanism -- prior, likelihood, posterior, evidence -- is defined as probability distributions whose combination follows Bayes' theorem within Kolmogorov's axioms. The graded uncertainty Bayesian inference maintains across hypotheses is a probability assignment over a sample space; the conditioning operation that produces the posterior is probability's conditioning rule. Without probability's apparatus of coherent numerical weights, additivity, and conditioning, there is no prior to update and no posterior to compute; Bayesian updating is probability theory's central inference move. Probability supplies the prerequisite condition: Quantifies uncertainty and likelihoods. Bayesian Updating operates against that background: Update beliefs with evidence. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." }, { "child": "bayesian_updating", "parent": "conditional_probability", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Bayesian Updating typically presupposes Conditional Probability, whose structure must already obtain for the child mechanism to be meaningful or operational.", "reason": "Conditional Probability supplies the prerequisite condition: Re-normalize a probability measure to the information context that is taken as given. Bayesian Updating operates against that background: Update beliefs with evidence. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "beachhead_market": [ { "child": "beachhead_market", "parent": "scarcity", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "A beachhead presupposes resources too scarce to dominate the full target at once, making concentration on a narrow winnable foothold necessary.", "reason": "The strategy begins from resources insufficient for the large target and gains leverage by concentrating them where they can cross a local dominance threshold. If the whole territory can be taken and consolidated at once, the narrow entry, staged consolidation, and converting-adjacency logic are no longer a beachhead response." } ], "belief_formation": [ { "child": "belief_formation", "parent": "interpretation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Belief Formation is a specialization of Interpretation, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Interpretation supplies the genus: Recover meaning from a representational substrate under a framework that makes some readings available and others not. Belief Formation preserves that general structure while adding its differentia: Commitment-transition by which an agent comes to hold a proposition as true and act accordingly. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "bijectivity": [ { "child": "bijectivity", "parent": "function_mapping", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Bijectivity is a Function Mapping specialized by the conjunction of no collisions and no gaps, which yields a unique inverse.", "reason": "A bijection retains the declared domain, codomain, and single-valued rule of Function Mapping, then requires both injectivity and surjectivity. Most functions fail one or both requirements, so Bijectivity is the strict reversible specialization rather than a synonym for mapping." }, { "child": "bijectivity", "parent": "injectivity", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Bijectivity contains Injectivity as its no-collision half; removing distinctness preservation leaves a surjection rather than a bijection.", "reason": "The bijective conjunction requires distinct inputs to land on distinct outputs. Without that invariant, every target may still be reached, but multiple sources can collide and the inverse is not uniquely defined. Injectivity is therefore a strict constituent inside Bijectivity, not a broader object that contains it." }, { "child": "bijectivity", "parent": "surjectivity", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Bijectivity contains Surjectivity as its no-gap half; removing full codomain coverage leaves an injection rather than a bijection.", "reason": "The bijective conjunction requires every declared target to have a source. Without that invariant, collisions may still be absent, but unused codomain elements prevent a two-sided inverse over the declared collections. Surjectivity is therefore the second strict constituent inside Bijectivity." } ], "binding_problem": [ { "child": "binding_problem", "parent": "decomposition", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "The binding problem arises only after a whole's features have been separated into independently processed streams whose original co-occurrence must be recovered.", "reason": "Binding is the inverse problem created by successful decomposition: features have already been extracted along separate channels, and no one channel retains the information needed to reconstruct which features belonged together. Without that prior separation there is no lost pairing to recover and therefore no binding problem, although binding is not itself a kind of decomposition." } ], "bioaccumulation": [ { "child": "bioaccumulation", "parent": "asymmetry", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Bioaccumulation presupposes Asymmetry: it requires intake to exceed elimination, a directed imbalance between two coupled rates.", "reason": "Bioaccumulation is the buildup of a substance in an organism because uptake from the environment exceeds the rates of metabolic clearance and excretion. The phenomenon depends on a directed imbalance between two coupled fluxes \u2014 intake and outflow are not interchangeable, and swapping their magnitudes reverses the outcome. That is the structure of Asymmetry: a relation whose two sides are not exchangeable, with one privileged or larger than the other. Bioaccumulation presupposes asymmetry as the kinetic condition that makes net accumulation possible." }, { "child": "bioaccumulation", "parent": "flow", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Bioaccumulation presupposes flow because it names the net retention that occurs when an inflow of a substance exceeds the organism's outflow capacity.", "reason": "Bioaccumulation presupposes flow because it describes the structural condition in which a substance enters an organism faster than it is metabolized, excreted, or otherwise eliminated, producing net buildup over time. The very notion of accumulation requires the prior availability of directional transfer of a quantity across the organism's boundary, with rates of entry and exit, conservation, and sinks. Flow supplies that general transport apparatus; bioaccumulation is what happens when inflow systematically outruns outflow in a biological compartment." }, { "child": "bioaccumulation", "parent": "aggregation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Bioaccumulation is a specialization of aggregation in which the items collapsed into a summary are repeated intakes of a substance and the retained feature is total body burden.", "reason": "Bioaccumulation is a specialization of aggregation in which the items being collapsed into a unified summary are successive intakes of a substance and the retained quantity is the net body burden over time. It inherits the general aggregation commitment that many granular inputs are reduced into a single composite measure that captures chosen features while suppressing item-level detail. Its specialization is that the aggregating function is biological retention: intakes minus elimination accumulate into a single concentration variable whose value carries the toxicologically relevant information." }, { "child": "bioaccumulation", "parent": "accumulation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Progressive concentration of a substance = a stock integrating uptake minus clearance; the biological instance of the stock-flow integral.", "reason": "Progressive concentration of a substance = a stock integrating uptake minus clearance; the biological instance of the stock-flow integral. Add accumulation as a parent; keep aggregation;asymmetry;flow." } ], "biofouling": [ { "child": "biofouling", "parent": "accumulation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Biofouling is a specialization of Accumulation, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Accumulation supplies the genus: A stock grows or shrinks as the time-integral of its net inflow minus outflow, so stocks and flows live on different objects and cannot be equated. Biofouling preserves that general structure while adding its differentia: Opportunistic matter accumulates at a working interface, charging a cost for occupation, not activity. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "birthday_problem": [ { "child": "birthday_problem", "parent": "probability", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "The birthday problem is a specific named consequence of probability \u2014 the sqrt(K) saturation of match-any-pair events, driven by quadratic pair-counting.", "reason": "The birthday problem is a specific named consequence of probability \u2014 the sqrt(K) saturation of match-any-pair events, driven by quadratic pair-counting. Presupposes the probability machinery it specializes (it is 'one named consequence', not the subject)." } ], "black_box_vs_white_box_distinction": [ { "child": "black_box_vs_white_box_distinction", "parent": "abstraction", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Black-box / white-box distinction presupposes abstraction because choosing whether to expose internal mechanism is a purpose-relative decision about retained structure.", "reason": "The black-box / white-box distinction names the methodological choice between treating a system's internals as unknowable or irrelevant versus specifying them in detail. The choice is constitutively about what structure to retain for a purpose: black-box analysis keeps only input-output behavior; white-box analysis keeps the mechanism. Abstraction supplies the underlying operation \u2014 purpose-relative retention of structure, with explicit decisions about what is kept and what is dropped. The black-box/white-box distinction specializes abstraction by naming two canonical retention policies and the methodological tradeoffs between them for prediction, control, and explanation." } ], "black_swan_high_impact_low_probability_events": [ { "child": "black_swan_high_impact_low_probability_events", "parent": "foresight", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Black swan reasoning presupposes foresight because it requires a disciplined anticipatory stance to bound the unbounded space of high-impact surprises.", "reason": "Black swan reasoning presupposes foresight because identifying high-impact, low-probability events that fall outside standard expectations requires an anticipatory stance that explicitly maps uncertainty and the limits of one's operative models. Without foresight's commitment to structured anticipation of plural futures, weak signals, and the inadequacy of single-point prediction, there is no frame in which the black-swan category is meaningful \u2014 it would simply collapse into unforeseen accident. Foresight supplies the disciplined inquiry into tail uncertainty that makes the black-swan concept operationally usable for preparing under fundamental unpredictability." }, { "child": "black_swan_high_impact_low_probability_events", "parent": "uncertainty", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Black swans are the specific shape uncertainty takes for high-impact events that fall outside prior models and get rationalized only after they occur.", "reason": "Uncertainty is the structural condition of incomplete or contested knowledge, including deep uncertainty where the space of possibilities is not fully characterized. Black swans are the particular shape this condition takes for events that combine apparent rarity given operative models, outsized impact, and retrospective predictability. They live in the deep-uncertainty band \u2014 outside the model's anticipated tail \u2014 and become subject to post-hoc rationalization. A structurally-particularized instance of uncertainty whose specific signature is model-misspecification at the tail combined with impact disproportionate to anticipated routine variance." } ], "blinding": [ { "child": "blinding", "parent": "selective_information_severance", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Blinding is the experiment-design/bias-control specialization (sever the treatment-assignment channel to the evaluator).", "reason": "Blinding is the experiment-design/bias-control specialization (sever the treatment-assignment channel to the evaluator). Selective Information Severance supplies the genus: Deliberately cutting an information channel on a need-to-know basis, so a party cannot act on, be biased by, or leak information it never receives. Blinding preserves that general structure while adding its differentia: Deliberately withholding a specific piece of information from a decision-maker so a downstream judgment cannot be contaminated by it \u2014 a targeted severance of a bias channel. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "blockage_release_dynamics": [ { "child": "blockage_release_dynamics", "parent": "accumulation", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Blockage-release dynamics contains growth of a stored upstream load as net inflow exceeds outflow.", "reason": "Without the time-integrated stock behind the barrier, release magnitude cannot exceed the original flow rate and the defining deferred peak disappears. Accumulation supplies an internal constituent: A stock grows or shrinks as the time-integral of its net inflow minus outflow, so stocks and flows live on different objects and cannot be equated. Blockage Release Dynamics requires that role within this mechanism: A barrier stores accumulating flow until it fails, converting steady load into a single discontinuous release far larger than the original flow. Remove the parent-role and the child loses a required internal operation, even though the parent can exist outside the child. The child is therefore built from the parent rather than being a taxonomic kind of it." }, { "child": "blockage_release_dynamics", "parent": "flow", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Blockage-release dynamics contains a flow that would otherwise pass continuously through the system.", "reason": "Without a moving quantity intercepted by the barrier, there is nothing to impound, accumulate, temporally compress, or discharge downstream. Flow supplies an internal constituent: Structured movement of energy, matter, or information. Blockage Release Dynamics requires that role within this mechanism: A barrier stores accumulating flow until it fails, converting steady load into a single discontinuous release far larger than the original flow. Remove the parent-role and the child loses a required internal operation, even though the parent can exist outside the child. The child is therefore built from the parent rather than being a taxonomic kind of it." }, { "child": "blockage_release_dynamics", "parent": "threshold", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Blockage-release dynamics contains a barrier-capacity threshold that separates holding from discontinuous discharge.", "reason": "Without a critical capacity, overtopping, breach, rupture, or removal does not produce the abrupt state boundary that ends storage and begins release. Threshold supplies an internal constituent: Safe vs harmful levels. Blockage Release Dynamics requires that role within this mechanism: A barrier stores accumulating flow until it fails, converting steady load into a single discontinuous release far larger than the original flow. Remove the parent-role and the child loses a required internal operation, even though the parent can exist outside the child. The child is therefore built from the parent rather than being a taxonomic kind of it." } ], "blocking_in_experimental_design": [ { "child": "blocking_in_experimental_design", "parent": "confounding", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Blocking presupposes confounding because the technique exists specifically to neutralize known nuisance variables that would otherwise confound the treatment effect.", "reason": "Blocking partitions experimental units into groups matched on a known nuisance variable, so that comparisons of treatments occur within blocks where that variable is held effectively constant \u2014 neutralizing its capacity to confound. Without confounding's machinery \u2014 the principle that third variables associated with both treatment and outcome distort the causal estimate \u2014 there would be no diagnosis identifying which variables to block on and no rationale for the within-block comparison structure. Confounding supplies the bias mechanism that blocking is specifically engineered to counter." }, { "child": "blocking_in_experimental_design", "parent": "experimental_design", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Blocking is the specific shape experimental design takes when known nuisance variability is absorbed by stratifying units before randomization.", "reason": "Blocking is the particular form experimental design takes when the investigator already knows the population is heterogeneous along an identifiable nuisance dimension. By partitioning units into matched groups and running each treatment within every block, blocking removes that variability from the error term rather than leaving it as noise, sharpening the causal estimate. The general architecture of principled comparison under randomization is here specialized to handle known systematic heterogeneity through stratified assignment, preserving exchangeability within blocks while controlling between-block variance." } ], "bloom_and_bust_cycle": [ { "child": "bloom_and_bust_cycle", "parent": "overshoot_and_collapse", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Bloom_and_bust is the POPULATION-LEVEL instance of the arc (explosive growth on an abundant input then self-poisoning crash); overshoot_and_collapse is the general genus.", "reason": "Bloom_and_bust is the POPULATION-LEVEL instance of the arc (explosive growth on an abundant input then self-poisoning crash); overshoot_and_collapse is the general genus. Overshoot and Collapse supplies the genus: An enabling input that is beneficial at low levels crosses an assimilation ceiling and inverts into a self-amplifying degrading load, depleting a secondary resource and locking in a hysteretic worse regime that does not reverse when the input is removed. Bloom And Bust Cycle preserves that general structure while adding its differentia: Saturating growth collapses, and the collapse itself becomes a second, often larger, stressor. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "bootstrapping": [ { "child": "bootstrapping", "parent": "recursion", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Bootstrapping presupposes recursion because each stage must use products of an earlier stage to construct the next stage until the target system can sustain itself.", "reason": "The minimal seed does not jump directly to the finished system. It produces a capability that is fed back as an input to produce the next capability, repeating the same self-lifting relation across stages. Without recursive reuse of prior-stage output, the process is ordinary initialization from an external scaffold rather than bootstrapping." } ], "bottleneck": [ { "child": "bottleneck", "parent": "dependency", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "A bottleneck presupposes dependency because the slowest-element-governs-the-whole pattern only obtains in a chain of dependent operations.", "reason": "A bottleneck presupposes dependency because the binding-local-constraint-governs-global-rate signature only obtains where operations are linked by directed reliance into chains or networks. Without dependency's structure \u2014 one stage cannot proceed unless its upstream input is supplied \u2014 there is no chain whose throughput could be capped by its slowest link, and improving non-bottleneck elements would not be wasted. Dependency supplies the coupling that makes throughput a system property rather than a sum of independent rates; the bottleneck is then the specific node where that coupling becomes the binding constraint." }, { "child": "bottleneck", "parent": "constraint", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "A bottleneck is the specific shape a constraint takes when one stage's limited capacity binds the throughput of an entire pipeline.", "reason": "A bottleneck is the specific shape constraint takes in a chained-throughput system: the binding restriction is localized to a single stage whose capacity caps the aggregate rate, so improvements anywhere else fall outside the feasible-gain set. Where constraint names any binding restriction on admissible configurations, bottleneck particularizes it to serial or networked production, where the slowest element defines the feasible throughput envelope. Relieving non-bottleneck elements is structurally non-binding; only the bottleneck moves the global rate, making it the operative constraint." }, { "child": "bottleneck", "parent": "cut", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Bottleneck is typically a specialization of Cut, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Cut supplies the genus: A partition of a network's vertices and the crossing edges, converting global connectivity into a local edge-set. Bottleneck preserves that general structure while adding its differentia: The single limiting stage that caps an entire system's throughput. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "bottom_up_perspectives": [ { "child": "bottom_up_perspectives", "parent": "emergence", "type": "decompose", "flavor": "", "qualifier": "typical", "reason_short": "Bottom-up perspectives is typically the specific shape emergence takes when distributed local contributions aggregate into a higher-level account without central design.", "reason": "Emergence is the appearance, at a higher level of organization, of properties not attributable to lower-level constituents and not trivially predictable from them. Bottom-up perspectives is typically the specific shape this pattern takes in analytical and governance practice: many distributed local inputs aggregate into a higher-level system, product, or policy that is itself an emergent artifact rather than a pre-specified design. It is a structurally-particularized instance of emergence whose specific machinery is aggregation of local contributions, though some bottom-up practices are coordinated rather than emergent, hence typical." } ], "boundary_critique": [ { "child": "boundary_critique", "parent": "reflexivity_self_reference", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Boundary critique is the specific shape reflexivity takes when an analysis turns back on its own implicit choice of system boundary.", "reason": "Reflexivity is the pattern in which a system's observations or models about itself become inputs that shape its own behavior, producing a self-referential loop between description and described. Boundary critique is the particular shape this move takes for systems analysis: every analysis depends on an implicit choice of what is inside the system, and the analysis must turn back on that choice, surfacing and questioning the boundary judgment as part of the work. A structurally-particularized instance of reflexivity in which the self-reference is the analyst's framing choice being made an object of the analysis itself." }, { "child": "boundary_critique", "parent": "boundary", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Boundary critique presupposes boundary because the reflective questioning of inside-versus-outside choices requires a prior boundary to be drawn and made explicit.", "reason": "Boundary critique is the reflective practice of surfacing and questioning the implicit choice of what counts as inside versus outside a system analysis, which structurally requires that a boundary is already operative or proposed. Without the boundary prime's substrate \u2014 a demarcation between an entity and what is outside it, with attendant flows, membership, and accountability \u2014 there would be nothing for the critique to inspect, no normative or strategic stakes in where the line is drawn, and no alternative boundaries to consider." } ], "boundary_disclosure_card": [ { "child": "boundary_disclosure_card", "parent": "interface", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "A Boundary Disclosure Card typically presupposes the producer-consumer reuse interface at which its standardized facts must be encountered.", "reason": "The card is attached at an artifact's reuse boundary so that a downstream consumer encounters the disclosure at the decision point. Interface supplies that producer-consumer crossing, while the card is the disclosure surface attached there rather than the operative contract governing interaction." }, { "child": "boundary_disclosure_card", "parent": "provenance", "type": "composition", "flavor": "part_of", "qualifier": "conditional", "reason_short": "A Boundary Disclosure Card contains Provenance when its schema includes origin or lineage among the facts attached to the reusable artifact.", "reason": "When origin matters for safe reuse, the card carries a provenance slot alongside contents, limits, hazards, expiry, or dependencies. The live identity requires a small selected fact set but does not require provenance specifically; a valid nutrition, capability, or hazard card can omit origin." } ], "boundary_signal_spillover": [ { "child": "boundary_signal_spillover", "parent": "escape_and_leakage", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Boundary signal spillover is leakage specialized to a signal escaping its intended audience boundary through a permeable carrier.", "reason": "It inherits unintended passage beyond a containment scope and adds an adjacent audience, its independent receiver-side calculus, and overflow of an apparatus sized only for the target audience." } ], "boundary_state_loss": [ { "child": "boundary_state_loss", "parent": "boundary", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Boundary state loss requires a carrier boundary across which a bounded artifact must convey state.", "reason": "The loss event is defined at a transition between carriers or contexts; remove the boundary and there is no handoff at which encoding capacity can discard state, although the boundary is the site rather than the loss itself." } ], "bounded_rationality": [ { "child": "bounded_rationality", "parent": "decision", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Bounded rationality presupposes decision because it describes how real decision-makers operate under cognitive and informational constraints.", "reason": "Bounded rationality is the structural claim that real decision-makers operate under binding limits on information, capacity, and time that shape their choice processes. The claim only has content where a decision is being made \u2014 an agent selecting among alternatives under constraint. Decision supplies the act of selecting one alternative from a set, committing future resources, and closing off other paths; bounded rationality presupposes that selection event as its subject matter, then specifies that real agents do not perform it as unconstrained optimizers but as satisficers searching local neighborhoods." }, { "child": "bounded_rationality", "parent": "constraint", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Bounded rationality is the specific shape constraint takes when the binding restrictions act on cognitive, informational, and time resources of decision-makers.", "reason": "Constraint is a condition that restricts admissible configurations or choices to those satisfying it, with the feasible set as a first-class object of analysis. Bounded rationality is the particular shape this pattern takes when the restrictions act not on physical configurations but on the cognitive, informational, and computational resources available to a decision-maker. The agent's choice process is bounded by binding limits on these resources, producing local search and aspiration-based stopping. A structurally-particularized instance of constraint whose specific binding dimensions are cognition, information, and time." } ], "bracketing": [ { "child": "bracketing", "parent": "framing", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Bracketing typically presupposes Framing, whose structure must already obtain for the child mechanism to be meaningful or operational.", "reason": "Framing supplies the prerequisite condition: Presentation shapes perception. Bracketing operates against that background: Deliberately suspending a held frame from operative use within a scoped inquiry. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "braess_paradox": [ { "child": "braess_paradox", "parent": "equilibrium", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Braess's paradox is about the GAP between the selfish equilibrium and the social optimum, and how added capacity widens it \u2014 a property of equilibrium SELECTION over load-sensitive edges.", "reason": "Braess's paradox is about the GAP between the selfish equilibrium and the social optimum, and how added capacity widens it \u2014 a property of equilibrium SELECTION over load-sensitive edges. Presupposes equilibrium (it is not equilibrium itself but a phenomenon of its selection)." } ], "branch_and_bound": [ { "child": "branch_and_bound", "parent": "decomposition", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Branch and bound is the specific shape decomposition takes for combinatorial optimization, partitioning the solution space into prunable subsets.", "reason": "Branch and bound is the specific shape decomposition takes when applied to combinatorial optimization. The general decomposition pattern breaks a whole into constituent parts such that the parts, properly combined, reconstitute the whole and enable independent analysis. Branch and bound instantiates this by recursively partitioning the solution space into subsets (branches), computing bounds on each subset's optimal value, and pruning subsets whose bound proves they cannot contain the optimum. The decomposition is into mutually exclusive subsets that together cover the original space, with bounding supplying the structural reason that allows whole regions to be dismissed without exploration." }, { "child": "branch_and_bound", "parent": "optimization", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Branch and bound is a specialization of optimization that implicitly enumerates the feasible set by recursive partitioning and bound-driven pruning.", "reason": "Branch and bound is a specialization of optimization in which the search apparatus is implicit enumeration: the feasible set is recursively partitioned (branching), upper and lower bounds on the optimal objective within each subset are computed (bounding), and subsets provably unable to contain the optimum are pruned. It inherits the general optimization commitment of finding the best element of a specified set under stated constraints with respect to a stated objective, and specializes by giving that search the divide-and-conquer-plus-pruning shape that drives modern integer and mixed-integer programming solvers." }, { "child": "branch_and_bound", "parent": "backtracking", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "'Branch-and-bound is backtracking PLUS bounding' \u2014 the same commit-check-rollback skeleton augmented with an optimisation bound.", "reason": "'Branch-and-bound is backtracking PLUS bounding' \u2014 the same commit-check-rollback skeleton augmented with an optimisation bound. backtracking is the base/genus, branch_and_bound the optimisation child. Add backtracking as parent (additive; branch_and_bound keeps optimization;decomposition). Backtracking supplies the genus: Extend a partial solution one step at a time and reverse the most recent commitment as soon as a constraint proves it cannot succeed, preserving earlier work. Branch and Bound preserves that general structure while adding its differentia: Systematic search with pruning. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "branching_and_merging": [ { "child": "branching_and_merging", "parent": "versioning", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Branching and merging presupposes versioning because forks and merges only make sense when distinct artifact states are identified, retained, and diffable.", "reason": "Branching and merging requires that distinct states of an artifact be separately identifiable, retrievable, and comparable, because a fork creates a divergent parallel state that must coexist with the trunk and a merge must reconcile two prior states into one. Without versioning's stable identifiers, retained history, and computable differences between states, there is no substrate on which divergence and reconvergence operate \u2014 the fork would have nothing to address and the merge would have no priors to reconcile." }, { "child": "branching_and_merging", "parent": "state_and_state_transition", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Branching and merging presupposes state and state transition because forks and merges are operations that take prior states to new states.", "reason": "Branching and merging operates on a substrate of identifiable system states and rule-governed transitions between them: a fork is a transition that produces two child states from a parent, and a merge is a transition that reconciles two parent states into one child. The pattern cannot exist without the underlying commitment that the system has a state space and a transition relation; the fork-and-merge operations are themselves a specific structure imposed on that more general state-transition machinery." } ], "brandolinis_law": [ { "child": "brandolinis_law", "parent": "asymmetric_attack_defense_cost", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Brandolini's law is asymmetric attack-defense cost specialized to cheap corruptive claims and evidence-heavy correction on a shared information channel.", "reason": "Brandolini retains the parent's non-discriminating channel, harmful and corrective flows, per-unit production-cost ratio, bounded defense capacity, saturation threshold, and need to redesign the ratio or channel. It fixes the attack to false or low-quality claims, the defense to fact-checking and contextual reconstruction, and adds an audience-overlap gap." } ], "bricolage": [ { "child": "bricolage", "parent": "scarcity", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Bricolage presupposes a fixed, heterogeneous inventory whose insufficiency rules out acquiring purpose-built inputs.", "reason": "Recombining what is already at hand is the defining response to constrained availability; if arbitrary new materials can be obtained, the fixed-inventory structure that distinguishes bricolage disappears." } ], "brinkmanship": [ { "child": "brinkmanship", "parent": "commitment_device", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Brinkmanship is 'a specific and unusual case' of commitment_device \u2014 the constraint is a probability-ramping process toward a SHARED catastrophe, making a STOCHASTIC catastrophe credible by ceding control (vs a generic device locking in a certain action).", "reason": "Brinkmanship is 'a specific and unusual case' of commitment_device \u2014 the constraint is a probability-ramping process toward a SHARED catastrophe, making a STOCHASTIC catastrophe credible by ceding control (vs a generic device locking in a certain action). Commitment Device supplies the genus: A self-imposed constraint that binds one's own future choices. Brinkmanship preserves that general structure while adding its differentia: Deliberately raising a stochastic risk of shared catastrophe, using the rising probability as a bargaining lever. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." }, { "child": "brinkmanship", "parent": "coercion", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Brinkmanship is a specialization of Coercion, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Coercion supplies the genus: Shaping another agent's choice by manipulating the costs and threats attached to their options, so the agent itself 'chooses' the coercer's preferred action \u2014 the common parent of forcing an action (compellence) and forcing restraint (deterrence). Brinkmanship preserves that general structure while adding its differentia: Deliberately raising a stochastic risk of shared catastrophe, using the rising probability as a bargaining lever. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "broken_windows_theory": [ { "child": "broken_windows_theory", "parent": "feedback", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Broken windows is a positive-feedback signal-inference-response loop with a density threshold (same algebra as an epidemic R0-crossing) \u2014 a specialization of feedback restricted to agents inferring a hidden enforcement-cost regime from observable disorder residue.", "reason": "Broken windows is a positive-feedback signal-inference-response loop with a density threshold (same algebra as an epidemic R0-crossing) \u2014 a specialization of feedback restricted to agents inferring a hidden enforcement-cost regime from observable disorder residue. Feedback supplies the genus: Outputs influence inputs. Broken Windows Theory preserves that general structure while adding its differentia: Visible unrepaired disorder signals weakened enforcement, lowering the perceived cost of further violation in a self-reinforcing cascade. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "buffering": [ { "child": "buffering", "parent": "reserve", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Buffering presupposes reserve because the absorbing capacity that buffering uses to smooth variation is precisely a maintained surplus.", "reason": "Buffering presupposes reserve because the capacity it deploys \u2014 to absorb perturbation between source and consumer, smoothing variation and decoupling rate mismatches \u2014 is precisely a maintained surplus held beyond immediate need. Without reserve's prior structure of deliberately uncommitted capacity available for use when demand spikes or supply dips, buffering would have nothing to draw on. Buffering inherits the reserve framework and supplies a specific deployment pattern: the surplus is positioned between two coupled stages so that excess input fills the reserve and deficit demand drains it, transforming variable flow into steadier output." }, { "child": "buffering", "parent": "decoupling_point", "type": "decompose", "flavor": "part_of", "qualifier": "strict", "reason_short": "Buffering is the framed or domain-specific realization of Decoupling Point; removing the local frame leaves the parent's structural relation intact.", "reason": "After the chemistry_materials frame is stripped away, the retained structural roles are those of Decoupling Point: The buffered interface where a flow splits from forecast-driven push upstream into order-driven pull downstream, and whose position sets the lead-time, inventory, and customisation trade-offs. Buffering adds the local frame and commitments expressed in its identity: A maintained intermediate capacity that absorbs excess and releases it during shortfall, smoothing variation and decoupling a source from a consumer whose rates do not match. The parent pattern remains recognizable without that vocabulary, while the child is the framed realization of it. That preservation test establishes decomposition rather than taxonomic subsumption." } ], "bulkhead_pattern": [ { "child": "bulkhead_pattern", "parent": "partition", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "The bulkhead pattern is partition specialized by sibling isolation and local-failure containment.", "reason": "A bulkhead divides a shared critical resource into non-overlapping sibling compartments, adding bounded cross-coupling and the differentia that exhaustion or failure in one block must not drain the others." } ], "bycatch": [ { "child": "bycatch", "parent": "type_i_type_ii_errors", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Bycatch is what a false-positive RATE becomes when it acts on the world \u2014 the real-world non-target capture, with a magnitude-asymmetry and ledger-invisibility dimension the bare error taxonomy lacks.", "reason": "Bycatch is what a false-positive RATE becomes when it acts on the world \u2014 the real-world non-target capture, with a magnitude-asymmetry and ledger-invisibility dimension the bare error taxonomy lacks. Built on the Type-I/false-positive category; presupposes it. 'Bycatch is the impact-and-visibility structure built on top of the bare error category.'. Type I & Type II Errors supplies the prerequisite condition: False positive/negative. Bycatch operates against that background: A selective process aimed at one target class also captures non-target classes because of the selector's finite specificity, and the harm persists because the success metric counts only the target. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "bypassed_safeguard": [ { "child": "bypassed_safeguard", "parent": "constraint", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "A bypassed safeguard presupposes a protective control (a constraint installed to prevent a hazard) that operators route around under production pressure; it is a failure mode OF a constraint, built on the safeguard it disables.", "reason": "A bypassed safeguard presupposes a protective control (a constraint installed to prevent a hazard) that operators route around under production pressure; it is a failure mode OF a constraint, built on the safeguard it disables. Constraint supplies the prerequisite condition: Limits possibilities to guide outcomes. Bypassed Safeguard operates against that background: A protective control is systematically routed around by the very operators it was meant to protect, because it imposes friction against a production task and the workaround is locally rewarded and globally invisible until the rare hazard arrives. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." }, { "child": "bypassed_safeguard", "parent": "benign_sampling_safety_drift", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Bypassed Safeguard is a specialization of Benign-Sampling Safety Drift, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Benign-Sampling Safety Drift supplies the genus: A system near a hazard boundary reads a benign sample of outcomes \u2014 uneventful only because the hazard is rare, not because the margin is safe \u2014 as proof the safety margin is unnecessary, so each lucky round licenses the next erosion until a low-probability event finds the now-absent buffer. Bypassed Safeguard preserves that general structure while adding its differentia: A protective control is systematically routed around by the very operators it was meant to protect, because it imposes friction against a production task and the workaround is locally rewarded and globally invisible until the rare hazard arrives. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "bystander_effect": [ { "child": "bystander_effect", "parent": "responsibility_diffusion", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "The bystander effect presupposes responsibility diffusion because the decline in any individual's likelihood of acting is driven by responsibility spreading across the group.", "reason": "The bystander effect is the pattern in which each potential intervenor's probability of acting decreases as the number of co-present others rises. Responsibility diffusion \u2014 the structural paradox by which spreading obligation across multiple agents reduces each agent's felt personal accountability \u2014 is the mechanism producing that decrease. Without responsibility diffusing across the pool, additional bystanders would not weaken any individual's motivation to act. The bystander effect is therefore the emergency-intervention manifestation of the diffusion pattern, presupposing it as the engine of declining per-agent action probability." }, { "child": "bystander_effect", "parent": "coordination_problem_and_equilibrium_selection", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "The bystander effect is the specific shape coordination problems take when multiple potential helpers must align on who acts but lack a focal mechanism.", "reason": "Coordination problems arise when multiple stable equilibria exist and agents must align on one without the decision structure uniquely selecting an answer. The bystander effect is the particular shape this pattern takes in emergency intervention: many co-present potential helpers each face the equilibrium-selection question of who should act, with no built-in mechanism designating one. Diffused responsibility, pluralistic ignorance, and evaluation apprehension prevent any equilibrium from being uniquely selected, often producing the no-one-acts outcome. A structurally-particularized instance of equilibrium-selection failure in a multi-agent helping context." } ], "caching": [ { "child": "caching", "parent": "optimization", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Caching presupposes Optimization: keeping a fast local copy minimizes expected access cost under locality and capacity constraints.", "reason": "Caching maintains a small, fast tier holding likely-to-be-reused items so that average access latency or bandwidth cost is minimized given finite cache capacity. The eviction policy, sizing, and placement decisions are all instances of choosing values to minimize an expected-cost objective subject to capacity constraints. That is the optimization triplet \u2014 variables, objective, constraints \u2014 and caching presupposes optimization because every nontrivial cache design is implicitly or explicitly the solution to such a problem." }, { "child": "caching", "parent": "locality_of_reference", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Caching presupposes locality of reference because exploiting a fast-local copy only pays off when accesses cluster temporally or spatially.", "reason": "Caching presupposes locality of reference because the economic case for maintaining a small fast tier alongside a large slow tier depends entirely on workloads in which accesses cluster: recently-used items are likely to be reused soon, and items near a used one are likely to be touched next. Locality supplies the empirical distribution-of-access regularity that makes a cache pay off; without it, every access is equally likely to miss and the cache provides no average-case advantage over going straight to the source." }, { "child": "caching", "parent": "reserve", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Caching presupposes reserve because the fast local copy is a deliberately maintained surplus held against repeated access demand.", "reason": "Caching maintains a fast, local copy of information whose original is slow to fetch, so repeated accesses are served from the copy rather than the source. The cache is meaningful only as a deliberately held surplus \u2014 extra storage allocated beyond strict need, valuable precisely because available when demand patterns reuse it. Reserve supplies that structural object: a maintained surplus beyond expected need, absorbing variation without failure. Caching specializes reserve to information access, with locality of reference as the demand pattern the surplus exploits and latency reduction as the value delivered." } ], "cadence": [ { "child": "cadence", "parent": "periodicity", "type": "composition", "flavor": "", "qualifier": "strict", "reason_short": "Cadence presupposes and builds on periodic recurrence, adding rate-tunability framing on top.", "reason": "Cadence presupposes and builds on periodic recurrence, adding rate-tunability framing on top. Periodicity supplies the prerequisite condition: Regular cycles. Cadence operates against that background: The recurring beat or rate at which repeated operations or periods are spaced \u2014 the tempo that sets how often, not the unit it spaces or the bare fact of repeating. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "caldera_collapse": [ { "child": "caldera_collapse", "parent": "dependency", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Caldera collapse presupposes a load-bearing structure that depends on a support medium whose withdrawal supplies the failure mode.", "reason": "The overburden remains intact and its load unchanged; failure occurs because a reliance condition is progressively removed until the unsupported structure drops into the void." } ], "calibrated_rule_vs_moving_world": [ { "child": "calibrated_rule_vs_moving_world", "parent": "temporal_decay_and_degradation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "A frozen calibrated rule losing performance as its world drifts is a specific environmental-mismatch mode of temporal decay.", "reason": "The child fixes the decaying capability to performance of a mapping and locates the cause in a widening calibration-to-current-world gap. The parent admits that case while also covering intrinsic material, informational, and organizational degradation." } ], "calibration": [ { "child": "calibration", "parent": "measurement", "type": "decompose", "flavor": "part_of", "qualifier": "strict", "reason_short": "Calibration secures one of the seven links (unit/traceability).", "reason": "Calibration secures one of the seven links (unit/traceability). A component of measurement. After the statistics_experimental_design frame is stripped away, the retained structural roles are those of Measurement: Mapping a target's attribute onto a scale via an instrument and procedure, yielding a value-plus-uncertainty tied to a unit and frame. Calibration adds the local frame and commitments expressed in its identity: Aligning a system's output to a trusted reference by measuring deviation, adjusting to reduce it, and monitoring for drift. The parent pattern remains recognizable without that vocabulary, while the child is the framed realization of it. That preservation test establishes decomposition rather than taxonomic subsumption." }, { "child": "calibration", "parent": "discrepancy_driven_correction", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Calibration is typically a specialization of Discrepancy-Driven Correction, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Discrepancy-Driven Correction supplies the genus: Iteratively close the signed gap between a target and an observation. Calibration preserves that general structure while adding its differentia: Aligning a system's output to a trusted reference by measuring deviation, adjusting to reduce it, and monitoring for drift. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." }, { "child": "calibration", "parent": "confidence_annotation", "type": "decompose", "flavor": "part_of", "qualifier": "strict", "reason_short": "Names calibration as one of the prime's slots \u2014 the standing loop that keeps production/combination rules honest against outcomes.", "reason": "Names calibration as one of the prime's slots \u2014 the standing loop that keeps production/combination rules honest against outcomes. A component of a working annotation. After the statistics_experimental_design frame is stripped away, the retained structural roles are those of Confidence Annotation: A graded warrant marker attached to a claim that travels with it and tells downstream consumers how much weight to place on it. Calibration adds the local frame and commitments expressed in its identity: Aligning a system's output to a trusted reference by measuring deviation, adjusting to reduce it, and monitoring for drift. The parent pattern remains recognizable without that vocabulary, while the child is the framed realization of it. That preservation test establishes decomposition rather than taxonomic subsumption." } ], "callback": [ { "child": "callback", "parent": "delegation_of_authority", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "A callback is 'a narrow, mechanical special case of authority transfer: one action, one condition, no judgment' \u2014 registration transfers authority to the holder to act in the registrant's name.", "reason": "A callback is 'a narrow, mechanical special case of authority transfer: one action, one condition, no judgment' \u2014 registration transfers authority to the holder to act in the registrant's name. A specialization of delegation_of_authority (which grants broad ongoing discretion). Delegation of Authority supplies the genus: Assign responsibility. Callback preserves that general structure while adding its differentia: A named action handed off in advance, to be invoked later by someone else when a specified condition arises, releasing the registrant from synchronous waiting. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "canonical_form": [ { "child": "canonical_form", "parent": "equivalence_relation", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Canonical form PRESUPPOSES an equivalence relation (the partition) and adds a deterministic reduction to a unique per-class representative plus the biconditional (equivalent iff identical canonical forms).", "reason": "Canonical form PRESUPPOSES an equivalence relation (the partition) and adds a deterministic reduction to a unique per-class representative plus the biconditional (equivalent iff identical canonical forms). The relation alone does not supply the representative or the cheap-equality economy." } ], "capability_separation": [ { "child": "capability_separation", "parent": "authentication", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Capability Separation presupposes an Authentication procedure that checks whether an artifact genuinely originates from the privileged issuer.", "reason": "Capability Separation allocates issuance and verification powers across roles and maintains a forgery barrier. Authentication supplies the procedure that binds the artifact's asserted origin to admissible evidence and returns the verdict on which open verification relies. The architecture is not a kind of that procedure; it presupposes the procedure while adding the asymmetric allocation of capabilities and the invariant that verification must not confer issuance." } ], "capacity_recovery_interval": [ { "child": "capacity_recovery_interval", "parent": "trade_offs", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "A Capacity-Recovery Interval contains the trade of present output or momentum for greater future capacity and lower collapse risk.", "reason": "Remove the enforced exchange between present output and future restored capacity and there is no reason to enter the interval: the system could continue producing while recovering fully. The bounded low-load state is constituted by accepting a current sacrifice to buy a different future feasible set." }, { "child": "capacity_recovery_interval", "parent": "culminating_point", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "A Capacity-Recovery Interval presupposes a negative-yield threshold because its timing is defined by beginning before continued loading makes later restoration materially harder or impossible.", "reason": "The interval must start while continuation remains possible but before additional loading flips from productive to net harmful. Remove that threshold and the entry condition loses its defining criterion, leaving generic inactivity or scheduling rather than a prophylactic capacity-recovery interval." } ], "cardinality": [ { "child": "cardinality", "parent": "bijectivity", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Equal Cardinality is defined by the existence of a Bijection, allowing finite and infinite collections to be compared without enumerating them.", "reason": "Bijectivity supplies the no-collisions, no-gaps correspondence. Cardinality turns existence of such correspondences into equinumerosity classes, orders them by injections, and develops cardinal arithmetic and transfinite hierarchy." }, { "child": "cardinality", "parent": "equivalence_relation", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Cardinality contains the equinumerosity Equivalence Relation whose classes are the cardinal numbers.", "reason": "Bijections make same-cardinality reflexive, symmetric, and transitive, so sets partition into equinumerosity classes. Cardinality adds ordering, arithmetic, finite counting, and the transfinite hierarchy over those classes." }, { "child": "cardinality", "parent": "set_and_membership", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Cardinality requires sets as the collections whose size is compared while deliberately ignoring the identity of their elements.", "reason": "Set and Membership supplies distinct elements and collections as first-class objects. Cardinality adds equinumerosity, cardinal numbers, comparison by injection, and the finite and transfinite size hierarchy." } ], "carrying_capacity": [ { "child": "carrying_capacity", "parent": "threshold", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Carrying Capacity contains the sustainable-load Threshold separating normal operation from nonlinear saturation and substrate-eroding overshoot.", "reason": "Its three-zone curve is organized around a configuration-set critical load. Threshold supplies that boundary value; carrying capacity adds the load-bearing substrate, degradation beyond the boundary, shrinking future capacity, and recovery hysteresis. This repairs a previously standalone prime without coercing it into a false kind-of relation." } ], "cartesian_product": [ { "child": "cartesian_product", "parent": "set_and_membership", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Every Cartesian Product strictly presupposes input sets, their elements, and membership before it can form all ordered cross-set tuples.", "reason": "Cartesian Product is a derived construction over two or more sets. It requires a value set for each named dimension and membership tests that determine the admissible coordinate values, then forms every ordered tuple across them. The construction is not itself the primitive collection-and-belonging relation, so composition preserves the live entry's explicit boundary." } ], "cascade": [ { "child": "cascade", "parent": "network", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Cascade presupposes Network: sequential propagation requires a connection pattern through which state changes can travel from element to element.", "reason": "A cascade is the propagation of a state change from one element to coupled neighbors, which then trigger theirs, until exhaustion or damping stops the chain. The propagation can occur only over a set of pairwise connections that carries the disturbance \u2014 a Network. Without a connection pattern there is no path along which the chain advances, so cascade presupposes network as the structural substrate over which sequential transmission runs and whose topology shapes the cascade's reach and shape." }, { "child": "cascade", "parent": "propagation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "A cascade is a specialization of propagation in which each affected element becomes a new source, producing self-perpetuating sequential transmission through coupling.", "reason": "A cascade specializes propagation by requiring that each newly-affected element not merely register the disturbance but itself become a new source of it, re-emitting the perturbation to its neighbors. Where propagation names the systematic spreading of a signal or effect through a medium or network generally, a cascade fixes the transmission mode as sequential and self-perpetuating: every flipped element adds to the active source population, producing nonlinear total impact disproportionate to the trigger \u2014 a particular shape propagation takes when each receiver becomes a transmitter." }, { "child": "cascade", "parent": "contagion", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Cascade presupposes contagion because sequential transmission through coupled elements is the structural mechanism of contagious spread.", "reason": "A cascade is the structural pattern in which a state change in one element triggers the same change in coupled neighbors, who then transmit to theirs, producing self-perpetuating chain propagation. The dynamic requires contact-mediated, self-reproducing transmission across a network \u2014 exactly what contagion names. Contagion supplies the underlying commitment: a state spreads from affected to connected elements through direct transmission, with each new host capable of infecting its own neighbors. Cascade specializes contagion to threshold-triggered, often-amplifying chain propagation, with disproportion-to-trigger as the characteristic signature." }, { "child": "cascade", "parent": "punctuated_equilibrium", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "The cascade is the propagation mechanism INSIDE a burst (one change triggering correlated others); punctuated_equilibrium embeds it within the longer stasis-load-reset cycle.", "reason": "The cascade is the propagation mechanism INSIDE a burst (one change triggering correlated others); punctuated_equilibrium embeds it within the longer stasis-load-reset cycle. 'the cascade is the burst's internals, not the whole tempo.'. After the systems_cybernetics frame is stripped away, the retained structural roles are those of Punctuated Equilibrium: Change runs bimodal in tempo: long intervals of near-stasis that load latent constraint, interrupted by short bursts of correlated structural reorganization. Cascade adds the local frame and commitments expressed in its identity: A change in one element triggers a chain of further changes. The parent pattern remains recognizable without that vocabulary, while the child is the framed realization of it. That preservation test establishes decomposition rather than taxonomic subsumption." } ], "catalysis": [ { "child": "catalysis", "parent": "leverage_points", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Catalysis is a strict leverage-point species: a small, reusable facilitator produces disproportionate transformation by lowering one pathway's barrier over many turnovers.", "reason": "Every Catalysis instance satisfies the Leverage Points signature used by these entries: a comparatively small intervention at a sensitive pathway changes the transformation rate or product distribution disproportionately. Catalysis adds a permitted-but-slow transformation, a barrier-lowering facilitator, pathway selectivity, non-consumption, repeated turnover, and thermodynamic neutrality. Not every leverage point is catalytic, but that is the expected asymmetry between a genus and its strict species, not an exception requiring a typical qualifier." } ], "category": [ { "child": "category", "parent": "associativity", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "A Category strictly contains Associativity as the law making every finite chain of arrows independent of how its binary compositions are grouped.", "reason": "Category supplies objects, typed arrows, closure, identities, and the substance-blind stance. Associativity is the internal axiom equating the two parenthesizations of every three-arrow chain and licensing unambiguous paths." }, { "child": "category", "parent": "closure", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "A Category strictly contains closure of its morphisms under the partially defined operation that composes every endpoint-compatible pair.", "reason": "The category adds objects, source and target typing, identity arrows, the associativity law, and the substance-blind modeling posture. Closure remains the internal guarantee that composing two admissible arrows produces another arrow of the same category, so paths can continue without escaping it." } ], "category_retrieval_lock_in": [ { "child": "category_retrieval_lock_in", "parent": "lock_in", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Category Retrieval Lock In is a specialization of Lock-In, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "'the generic prime it specializes' \u2014 genus-to-species. category_retrieval_lock_in is lock_in where the costly-to-reverse commitment is a category label compiled into retrieval infrastructure, adding the retrieval-vs-substrate-lock split. Lock-In supplies the genus: Forward-looking cost of switching exceeds the forward-looking cost of staying, even when a superior alternative exists. Category Retrieval Lock In preserves that general structure while adding its differentia: A category label that made routine retrieval cheap obstructs novel re-use, because the retrieval infrastructure has compiled the label in place of the property list. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." }, { "child": "category_retrieval_lock_in", "parent": "search_and_retrieval", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "A specific PATHOLOGY of search_and_retrieval \u2014 the compression that makes routine retrieval cheap is what obstructs novel retrieval.", "reason": "A specific PATHOLOGY of search_and_retrieval \u2014 the compression that makes routine retrieval cheap is what obstructs novel retrieval. It presupposes a retrieval/indexing infrastructure. Search and Retrieval supplies the prerequisite condition: Locate and extract information. Category Retrieval Lock In operates against that background: A category label that made routine retrieval cheap obstructs novel re-use, because the retrieval infrastructure has compiled the label in place of the property list. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "causal_layered_analysis_cla": [ { "child": "causal_layered_analysis_cla", "parent": "foresight", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Causal Layered Analysis is foresight specialized to diagnosing and reconstructing possible futures across litany, systemic cause, worldview, and myth/metaphor.", "reason": "It inherits disciplined plural-future inquiry undertaken to change present perception and action. It adds a fixed depth traversal from surface report through systems and worldview to myth, followed by upward reconstruction of alternative futures." }, { "child": "causal_layered_analysis_cla", "parent": "layering", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "CLA contains a depth-ordered four-layer explanatory structure with an inverse visibility-leverage gradient and bidirectional traversal.", "reason": "Remove the ordered litany, social-cause, worldview, and myth/metaphor strata and CLA loses both its diagnostic descent and reconstructive ascent. Layering is an internal organization of the method rather than its taxonomic genus." } ], "causality": [ { "child": "causality", "parent": "dependency", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Causality is a specialization of dependency in which one event productively brings about another with counterfactual modal robustness.", "reason": "Causality is a specialization of dependency. The general dependency pattern is the directed asymmetric relation in which one element cannot proceed, function, or be interpreted unless a condition on another is met. Causality specializes by adding two commitments: a productive mechanism linking cause to effect (not merely correlation or precedence) and counterfactual modal robustness (had the cause not occurred, the effect would have differed). The same directed-asymmetric-reliance logic of dependency applies, with productive connection and counterfactual support as the specific gates distinguishing causation from looser dependence." } ], "center_of_gravity": [ { "child": "center_of_gravity", "parent": "leverage_points", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "A center of gravity is the strict adversarial leverage-point species: disrupting its cohesion-bearing, substitution-resistant node disproportionately changes the contest.", "reason": "Every Center of Gravity is a high-leverage intervention site by its defining test: disruption of the identified node causes a disproportionate system-wide change rather than an effect proportional to the node's size. It adds an adversarial contest, a cohesion-bearing and substitution-resistant node, paired attacker and defender analysis, and migration of the locus under hardening. Leverage Points also includes non-adversarial rules, goals, and parameters, so the relation is one-way strict specialization." } ], "central_limit_theorem": [ { "child": "central_limit_theorem", "parent": "aggregation", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "The CLT is a specific claim about the limiting SHAPE a SUM-aggregation converges to under finite variance \u2014 the Gaussian attractor.", "reason": "The CLT is a specific claim about the limiting SHAPE a SUM-aggregation converges to under finite variance \u2014 the Gaussian attractor. Presupposes aggregation (the bare combining operation); other rules (max, product) flow to other attractors." } ], "certification": [ { "child": "certification", "parent": "verification", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Certification = a verification procedure PACKAGED into a portable, third-party-attested token; it presupposes (is built on) the verification work it wraps.", "reason": "Certification = a verification procedure PACKAGED into a portable, third-party-attested token; it presupposes (is built on) the verification work it wraps. Verification supplies the prerequisite condition: Check that an object conforms to its specification via a defined procedure yielding evidence and a verdict. Certification operates against that background: A trusted third party attests, after a defined evaluation, that an entity meets a standard, and issues a portable token downstream parties use as a substitute for re-doing the evaluation. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." }, { "child": "certification", "parent": "trust", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Certification is an engineered mechanism for manufacturing transferable trust at a distance; it presupposes trust as the disposition it warrants.", "reason": "Certification is an engineered mechanism for manufacturing transferable trust at a distance; it presupposes trust as the disposition it warrants. Trust supplies the prerequisite condition: Willingly accepting vulnerability to another party's future behavior under incomplete monitoring, based on positive expectations about their competence and intentions. Certification operates against that background: A trusted third party attests, after a defined evaluation, that an entity meets a standard, and issues a portable token downstream parties use as a substitute for re-doing the evaluation. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." }, { "child": "certification", "parent": "reputation", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "The token's meaning is backed by the certifier's staked reputation; reputation is a load-bearing component.", "reason": "The token's meaning is backed by the certifier's staked reputation; reputation is a load-bearing component. Reputation supplies the prerequisite condition: An aggregated signal of past behaviour that shapes how others treat an agent. Certification operates against that background: A trusted third party attests, after a defined evaluation, that an entity meets a standard, and issues a portable token downstream parties use as a substitute for re-doing the evaluation. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "ceteris_paribus": [ { "child": "ceteris_paribus", "parent": "counterfactual_reasoning", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Ceteris paribus analysis requires reasoning about how a foreground change would differ while specified background conditions are held fixed.", "reason": "Ceteris paribus analysis requires reasoning about how a foreground change would differ while specified background conditions are held fixed. Counterfactual Reasoning supplies the prerequisite condition: Hypothetical alternatives. Ceteris Paribus operates against that background: Analyzing a foreground subsystem while explicitly holding the rest of the system fixed, tracking the gap. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "change_notification": [ { "child": "change_notification", "parent": "foreseeing_prediction", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Prediction is the broad genus, change_notification the narrow structured species \u2014 a directed-broadcast subset where a party with privileged knowledge of a DECIDED change warns exactly those affected, early enough to act.", "reason": "Prediction is the broad genus, change_notification the narrow structured species \u2014 a directed-broadcast subset where a party with privileged knowledge of a DECIDED change warns exactly those affected, early enough to act. A specialization adding directed-audience and lead-time and deliberate-change constraints. Foreseeing (Prediction) supplies the genus: Predict future states. Change Notification preserves that general structure while adding its differentia: Advance warning, directed at those who depend on a system, that it is about to change in a way they need lead time to prepare for. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "checks_balances": [ { "child": "checks_balances", "parent": "constraint", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Checks and Balances presupposes Constraint: each authority is bound by reciprocal restrictions that exclude unilateral action.", "reason": "Checks and balances gives each holder of power explicit tools \u2014 veto, review, audit, override \u2014 that restrict the others' admissible actions to those consistent with mutual restraint. The reciprocal tools function as binding restrictions on the feasible set of unilateral moves, ruling out configurations regardless of other merit. That is the defining structure of a Constraint, here woven into a mesh of mutual restrictions. Checks and balances presupposes constraint as the operative mechanism by which power is bound." }, { "child": "checks_balances", "parent": "feedback", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Checks and Balances presupposes Feedback: each branch's checks become inputs to the others' subsequent decisions and behavior.", "reason": "Checks and balances arranges authorities so that one branch's actions feed back to other branches as inputs that constrain their next moves: a veto, audit finding, or override returns to alter what the affected actor does next. That return path is exactly Feedback \u2014 output routed back to influence subsequent input \u2014 and it is what makes the reciprocal restraint dynamic rather than purely structural. Checks and balances presupposes feedback as the channel through which mutual restraint actually operates." }, { "child": "checks_balances", "parent": "separation_of_powers", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Checks and balances presupposes separation of powers because the reciprocal-restraint instruments require pre-existing distinct holders of distributed authority.", "reason": "Checks and balances equips each holder of distributed authority with explicit tools to constrain the others \u2014 veto, review, audit, override \u2014 producing reciprocal mutual restraint. This presupposes that authority has already been distributed across separate holders rather than concentrated in one: without the prior division of governmental function into distinct branches or roles, there would be no separate parties between which restraint instruments could be reciprocally exchanged. Separation of powers supplies the distributed-authority substrate that checks and balances operates on as a mesh of mutual constraint." } ], "chestertons_fence": [ { "child": "chestertons_fence", "parent": "uncertainty", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "The heuristic applies because the retained structure's function and the consequences of removal are uncertain.", "reason": "The heuristic applies because the retained structure's function and the consequences of removal are uncertain. Uncertainty supplies the prerequisite condition: Incomplete knowledge. Chesterton's Fence operates against that background: The persistence of a structure is evidence that it encodes a constraint, so understand its function before removing it. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "chunking": [ { "child": "chunking", "parent": "compression", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Chunking is a specialization of compression in which a set of items is grouped into a single meaningful unit that working memory then tracks as one element.", "reason": "Chunking is a specialization of compression in which the redundancy being exploited is structural relatedness among items, and the encoding shrinks the count of units working memory must track by binding them into one meaningful chunk. It inherits the general compression commitment that representational length can be reduced when the source contains predictable or relational structure, and specializes by locating the encoding in cognitive working memory: capacity is measured in chunks rather than raw elements, so restructuring raises effective capacity without enlarging the store." } ], "circuit_breaker": [ { "child": "circuit_breaker", "parent": "constraint", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Circuit breaker is a specific kind of constraint, imposing a binding threshold that interrupts flow once a danger level is exceeded.", "reason": "Circuit breaker is a specialization of constraint. The general pattern restricts admissible configurations to those satisfying a binding condition, with the feasible set as a first-class object. Circuit breaker instantiates this with the binding condition being a threshold on a monitored flow (current, requests, prices): values exceeding the threshold trigger interruption, removing the protected process from operation until reset. The mechanism converts the threshold into an enforced upper bound on flow magnitude. It is constraint operating dynamically as an automatic interrupter at the edge of admissibility, accepting local stoppage as the price of holding the binding condition." }, { "child": "circuit_breaker", "parent": "feedback", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Circuit breaker presupposes feedback because the monitor-trip-reset loop routes the protected flow's state back to control its own continuation.", "reason": "A circuit breaker watches a flow for a danger threshold and, when crossed, trips to interrupt the protected process until reset. This presupposes feedback: the structural arrangement in which a portion of a system's output is routed back to influence its subsequent input, closing a loop between cause and effect. The monitor observes the flow's current state and conditions the next-cycle behaviour (continue or interrupt) on what it sees. Without feedback's closed loop returning the flow's state to the trip decision, the breaker has no mechanism to act on the flow it is protecting." }, { "child": "circuit_breaker", "parent": "threshold", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "A circuit breaker presupposes threshold because its trip behavior requires a pre-defined danger value that, once crossed, triggers active disconnection.", "reason": "A circuit breaker presupposes threshold because its operation rests on a monitor watching a flow for a defined danger value and, the moment that value is crossed, actively disconnecting the protected process. Without the prior availability of a threshold as a critical input value separating safe from unsafe regimes, there is no defined moment for the breaker to trip, no sharp transition between continued operation and protective interruption. Threshold supplies the input-response discontinuity that the breaker mechanically enforces." } ], "clearance_rate": [ { "child": "clearance_rate", "parent": "flow", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Clearance Rate is the internally governed outbound-flow specialization that removes a measurable stock from a bounded system per unit time.", "reason": "It separates removal from upstream input and adds first-, zero-, or mixed-order kinetics, pathway vulnerability, half-life, saturation, and clearance-side intervention. After the systems_cybernetics frame is stripped away, the retained structural roles are those of Flow: Structured movement of energy, matter, or information. Clearance Rate adds the local frame and commitments expressed in its identity: The rate at which a bounded system removes substrate is a control surface separable from input, with kinetic regime and vulnerability that input-side reasoning misses. The parent pattern remains recognizable without that vocabulary, while the child is the framed realization of it. That preservation test establishes decomposition rather than taxonomic subsumption." } ], "client_server_model": [ { "child": "client_server_model", "parent": "network", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "The client-server model is 'a directed topology laid over a network' \u2014 a network supplies nodes/edges, client-server adds initiation/addressability/multiplexing/capability asymmetries.", "reason": "The client-server model is 'a directed topology laid over a network' \u2014 a network supplies nodes/edges, client-server adds initiation/addressability/multiplexing/capability asymmetries. It presupposes the network substrate. Network supplies the prerequisite condition: Models interactions between components. Client Server Model operates against that background: An asymmetric request-response relation in which one party holds a capability and many others initiate to consume it. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "close_reading": [ { "child": "close_reading", "parent": "interpretation", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Close reading presupposes an interpretive act whose whole-level meaning claims it constrains, but it is the upstream evidence-grounding method rather than a kind of meaning assignment.", "reason": "The method decomposes an artifact into meaningful marks, treats them as evidence, and binds higher-order claims about the artifact to cited grain. Those claims are interpretations: readings recovered from a representational substrate under an evidential and conventional framework. Without an interpretive claim there is nothing for the grain-first discipline to ground. Close reading is nevertheless the method and posture that constrains the act, not the meaning-assignment act itself." } ], "clustering": [ { "child": "clustering", "parent": "classification", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Clustering is classification specialized to discovering categories from within-group similarity without predefined labels.", "reason": "Both assign entities to a finite category structure for downstream reasoning. Clustering adds the differentia that group boundaries and labels are outputs inferred from a chosen feature space and similarity rule rather than inputs supplied in advance." }, { "child": "clustering", "parent": "similarity_measure", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Most clustering operationalizes within-group likeness through a similarity, dissimilarity, kernel, or distance-derived measure, while generative mixture methods can group by likelihood or latent fit without an explicit pairwise similarity.", "reason": "Centroid, hierarchical, spectral, density, and graph clustering normally require a pairwise or point-to-representative notion of nearness. The relation is only typical because probabilistic mixture and other generative procedures can assign observations by component likelihood or latent-model fit without defining a reusable similarity between pairs of observations." } ], "clustering_illusion": [ { "child": "clustering_illusion", "parent": "pattern_recognition", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "The clustering illusion is the specific FALSE-POSITIVE mode of pattern_recognition against randomness, diagnosable by the missing null model.", "reason": "The clustering illusion is the specific FALSE-POSITIVE mode of pattern_recognition against randomness, diagnosable by the missing null model. A specialization of the pattern-detection faculty (its miscalibration, not the faculty)." } ], "co_location": [ { "child": "co_location", "parent": "neighborhood", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Co-location typically presupposes a neighborhood when shared presence is defined by a focal region and proximity rule, though exact same-container cases need no tunable radius.", "reason": "Co-location typically presupposes a neighborhood when shared presence is defined by a focal region and proximity rule, though exact same-container cases need no tunable radius. In proximity-defined cases, erase the local window or host boundary and shared location becomes undefined. Co-location relates multiple occupants of a region; neighborhood defines the local window itself. Exact same-address, same-container, and same-locus identities can establish co-location without a separately modeled focal neighborhood or radius." } ], "co_presence": [ { "child": "co_presence", "parent": "agency", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Co-presence presupposes agents capable of detecting one another and selecting responses to that mutually available state.", "reason": "Mere simultaneous existence is not co-presence. At least two bounded systems must be able to register the other's availability and condition possible response on that registration. Agency supplies the responsive entities whose mutual availability constitutes the relation." } ], "coarsening": [ { "child": "coarsening", "parent": "scaling_and_scale_dependence", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Coarsening is 'one specific dynamical member' of the scale-dependence family \u2014 the boundary-cost-driven consolidation of a population toward fewer-and-larger over time, with characteristic kinetics.", "reason": "Coarsening is 'one specific dynamical member' of the scale-dependence family \u2014 the boundary-cost-driven consolidation of a population toward fewer-and-larger over time, with characteristic kinetics. scaling_and_scale_dependence is the genus. Scaling and Scale Dependence supplies the genus: Patterns and constraints change qualitatively across different scales. Coarsening preserves that general structure while adding its differentia: Boundary cost drives a population of units toward fewer and larger, content flowing small to large. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "coastal_squeeze": [ { "child": "coastal_squeeze", "parent": "constraint", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "'not generic constraint; the specific geometry of advancing-front and fixed-rear and immobile-subject that produces monotonic compression without exit.' A specialization of constraint with a mobility-asymmetry signature.", "reason": "'not generic constraint; the specific geometry of advancing-front and fixed-rear and immobile-subject that produces monotonic compression without exit.' A specialization of constraint with a mobility-asymmetry signature. Constraint supplies the genus: Limits possibilities to guide outcomes. Coastal Squeeze preserves that general structure while adding its differentia: An immobile subject is compressed between an advancing front and a fixed rear, with no exit. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "code_switching": [ { "child": "code_switching", "parent": "contextual_mode_switching", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Code-switching is a specialization of contextual mode switching in which the alternation is between distinct linguistic codes triggered by social and pragmatic cues.", "reason": "Code-switching is a specialization of contextual mode switching in which the available modes are distinct linguistic codes (languages, dialects, registers, jargons) and the contextual cues that select among them are social, pragmatic, and expressive. It inherits the general contextual-mode-switching commitment that an agent maintains a repertoire of modes optimized for classes of contexts and switches into the situationally appropriate one as a coherent bundle, and specializes by fixing the modes to linguistic codes and obeying the morpho-syntactic and sociolinguistic constraints that govern where and with whom switches occur." }, { "child": "code_switching", "parent": "remapping", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Code-Switching is typically a specialization of Remapping, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Remapping supplies the genus: A single substrate holds multiple disjoint, context-keyed representations and switches discretely between them on a context cue, preserving inactive ones for later re-entry. Code-Switching preserves that general structure while adding its differentia: Alternate languages. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "coevolution": [ { "child": "coevolution", "parent": "feedback", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Coevolution is the specific shape feedback takes when two adapting entities each become persistent selective pressures on each other.", "reason": "Coevolution is the structurally-particularized form feedback takes in the evolutionary case: each species' adaptation is the output that returns as the input (the changed selective pressure) on its partner, closing a reciprocal loop between cause and effect across generations. It inherits feedback's structural arrangement in which output routes back to influence subsequent input \u2014 particularized to the case where the timescale is generational, the variable is the fitness landscape, and the coupling is mutually reinforcing. Mutual entanglement of trajectories is precisely loop closure." } ], "cognitive_appraisal": [ { "child": "cognitive_appraisal", "parent": "evaluation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Cognitive Appraisal is the organism-centered species of Evaluation whose object is a situation and whose criteria are goal significance and coping capacity.", "reason": "Cognitive Appraisal preserves Evaluation's bounded target, criterion-bearing frame, interpretation of relevant features, and action-guiding judgment. Its differentia are psychological: the target is a perceived situation, the frame is the organism's goals and coping resources, and the result organizes emotion and behavior. Evaluation need not involve an organism, emotion, threat, or coping, so the relation is strict subsumption rather than identity." }, { "child": "cognitive_appraisal", "parent": "sensemaking", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Cognitive appraisal is the specific shape sensemaking takes when the system constructing the working account is an individual organism under threat or opportunity.", "reason": "Cognitive appraisal is the specific shape sensemaking takes when the agent is an individual organism evaluating a situation's significance for its own well-being. Sensemaking's general anatomy \u2014 extracting cues, bracketing them, constructing a plausible identity-grounded account, committing to a frame for action \u2014 is structurally particularized into primary appraisal of threat-or-benefit relevance, secondary appraisal of coping resources, and reappraisal as new information arrives. The general operation of producing a working account under ambiguity is preserved; the specific shape is its embodied, emotion-organizing form in an individual facing a goal-relevant event." }, { "child": "cognitive_appraisal", "parent": "mental_model", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Cognitive appraisal presupposes a mental model because evaluating a situation's significance for one's goals requires an internal representation of the domain to read it against.", "reason": "Cognitive appraisal presupposes a mental model because evaluating a situation's threat-or-benefit relevance and one's coping resources requires an internal representation of the domain \u2014 its components, relationships, causal rules, and the agent's place in it \u2014 against which the situation is read. Without a mental model's simplified, runnable representation of how the relevant world works, there would be no internal structure for primary and secondary appraisal to consult. Mental models supply the representational substrate; cognitive appraisal supplies the goal-relevant evaluative reading that the model makes possible." } ], "cognitive_apprenticeship": [ { "child": "cognitive_apprenticeship", "parent": "pedagogy", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Cognitive apprenticeship is a specific pedagogy that makes expert tacit cognitive processes observable so novices can practice and internalize them.", "reason": "Cognitive apprenticeship is a specialization of pedagogy whose distinctive move is externalizing the normally-hidden cognitive processes of experts \u2014 through modeling, coaching, scaffolding, articulation, reflection, and exploration in authentic contexts \u2014 so that learners can observe and progressively internalize tacit expertise. It inherits pedagogy's general commitment that an instructional agent deliberately structures the learner's encounter with content to cause durable capability change, and adds the specific commitment that the content being structured is precisely the unspoken procedural knowledge that traditional instruction leaves invisible." } ], "cognitive_dissonance": [ { "child": "cognitive_dissonance", "parent": "homeostasis", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Cognitive dissonance is the specific shape homeostasis takes when cognitive consistency is the regulated variable and belief-or-behavior revision is the corrective response.", "reason": "Cognitive dissonance is the homeostatic particularization for the variable of cognitive consistency among a person's beliefs, behaviors, and self-conceptions: when inconsistency exceeds the acceptable band, an aversive state arises and drives revision of one or more cognitions to restore consistency. Where homeostasis names closed-loop self-regulation around a setpoint generally, dissonance fixes the regulated variable as inter-cognitive consistency and the actuator as belief-change, behavior-change, or trivialization \u2014 a particular sensor-comparator-actuator loop operating on the psychological field of cognitions." }, { "child": "cognitive_dissonance", "parent": "dissonance", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Cognitive_dissonance is the SPECIALISATION of the general dissonance prime to the cognitive substrate \u2014 fixing the elements (beliefs/behaviour), the rule of fit (cognitive consistency), and the resolution mechanism (revise belief/behaviour/self-image, all flavours of RESOLVE).", "reason": "cognitive_dissonance is the SPECIALISATION of the general dissonance prime to the cognitive substrate \u2014 fixing the elements (beliefs/behaviour), the rule of fit (cognitive consistency), and the resolution mechanism (revise belief/behaviour/self-image, all flavours of RESOLVE). The general prime adds the sustain/reframe/distance options the cognitive child lacks and covers acoustic/colour/software cases with no self or arousal. Add dissonance as parent of cognitive_dissonance." } ], "cognitive_entrenchment": [ { "child": "cognitive_entrenchment", "parent": "lock_in", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Cognitive entrenchment is a specific kind of lock-in where accumulated expert schemas make revising mental structures costlier than continuing with them.", "reason": "Cognitive entrenchment is a specialization of lock-in. The general pattern is that the forward-looking cost of switching from a current commitment exceeds continuing, because accumulated investment does not transfer to alternatives. Cognitive entrenchment instantiates this with the commitment being internalized mental models, procedures, and category structures from accumulated domain expertise; the non-transferable accumulation is the schema base itself. Revising toward novel representations costs more than continuing with proceduralized expertise, even when the domain has shifted and a different representation would now be superior." }, { "child": "cognitive_entrenchment", "parent": "mental_model", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Cognitive Entrenchment presupposes Mental Model: the entrenched structure is precisely a deeply internalized mental model of the domain.", "reason": "Cognitive entrenchment is the condition in which long expertise produces deeply internalized mental models, procedures, and category structures that resist revision when the domain shifts. The thing that becomes entrenched is the agent's representation of how the domain works \u2014 its components, relationships, and inferential rules \u2014 which is exactly a Mental Model. Cognitive entrenchment presupposes mental model as the object whose stabilization over time is the very phenomenon being named." } ], "cognitive_flexibility": [ { "child": "cognitive_flexibility", "parent": "adaptation", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Cognitive flexibility is an adaptive capacity: detect frame-context misfit and switch the active frame from a held repertoire.", "reason": "Cognitive flexibility is an adaptive capacity: detect frame-context misfit and switch the active frame from a held repertoire. A specialization of adaptation in agent-cognitive systems. Adaptation supplies the genus: Systems adjust to conditions. Cognitive Flexibility preserves that general structure while adding its differentia: Switching the active frame from a held repertoire when a trigger detects the current one has stopped fitting the context. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "cognitive_resource_depletion": [ { "child": "cognitive_resource_depletion", "parent": "scarcity", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Cognitive Resource Depletion is a kind of scarcity: cognitive capacity becomes insufficient to satisfy simultaneous deliberative demands.", "reason": "Cognitive resource depletion is the time-dependent degradation of mental capacity under sustained use: as resources are consumed, available capacity falls below the demands of effortful self-regulation and deliberation. That is exactly the Scarcity condition \u2014 available quantity insufficient to satisfy simultaneous demands, forcing allocation choices. Cognitive resource depletion specializes scarcity by making the scarce resource a temporally dynamic capacity that depletes with use and replenishes with rest." }, { "child": "cognitive_resource_depletion", "parent": "reserve", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Cognitive resource depletion presupposes reserve because depletion is the consumption of a deliberately-held mental capacity buffer.", "reason": "Cognitive resource depletion is the time-dependent degradation of cognitive capacity through sustained resource consumption without restoration. The construct presupposes that there is a maintained mental capacity available beyond immediate need \u2014 a reserve that performance draws from and depletes through use. Reserve supplies that structural object: a deliberately maintained surplus held beyond expected need, used to absorb load. Without an underlying reserve to draw on, depletion would have nothing to deplete from; the inverted-U of performance decay over time presupposes a finite buffer being consumed." } ], "coherence_breakdown_under_external_interaction": [ { "child": "coherence_breakdown_under_external_interaction", "parent": "dissipation", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Coherence breakdown under external interaction presupposes dissipation because uncontrolled environmental coupling is the channel through which order leaks away.", "reason": "Coherence breakdown is the loss of phase alignment or internal coordination when a system couples to an uncontrolled environment, with quantum decoherence as the canonical mechanism. This presupposes dissipation: the systematic, irreversible transformation of organized energy or order into thermalized, un-recoverable form through interaction with many degrees of freedom. The environment's many degrees of freedom are precisely the dissipative sink into which off-diagonal coherence terms flow. Without dissipation's one-way leakage channel, environmental coupling would be reversible and coherence would not break down." }, { "child": "coherence_breakdown_under_external_interaction", "parent": "environmental_coupling_strength", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Coherence breakdown under external interaction presupposes environmental coupling strength because its rate is fixed by how strongly the system couples to its environment.", "reason": "Coherence breakdown under external interaction presupposes environmental coupling strength because the rate at which off-diagonal coherence is suppressed and internal coordination lost is set precisely by how strongly the system is coupled to its environment. Strong coupling means rapid decoherence; weak coupling means the coherent state can be sustained. Without the prior notion of a graded boundary-permeability quantifying how much information or energy crosses the system-environment interface, there is no parameter to govern the breakdown's onset, timescale, or severity." }, { "child": "coherence_breakdown_under_external_interaction", "parent": "coupling", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Coherence breakdown under external interaction presupposes coupling because it occurs precisely when the system becomes dynamically linked to its environment.", "reason": "Coherence breakdown under external interaction presupposes coupling because the mechanism it names is the dynamic linkage between the coherent system and uncontrolled environmental degrees of freedom: that linkage is what entangles internal phase information with external noise and suppresses off-diagonal coherence. Without the prior availability of coupling as a channel through which state in one subsystem becomes input to another, the system could not be reached by the environment at all, and there would be no pathway by which its coordinated state could be degraded." } ], "collective_effervescence": [ { "child": "collective_effervescence", "parent": "ritual", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Collective effervescence presupposes ritual because the heightened shared emotional state emerges specifically from the synchronized symbolic performance of ritual assembly.", "reason": "Collective effervescence is the heightened emotional and energetic state arising when individuals gather, synchronize attention and movement, and orient to a sacred symbol \u2014 the structural conditions ritual supplies. Without ritual's machinery \u2014 rule-governed, repetitive, symbolically charged performance that aligns participants' attention and bodies \u2014 the conditions for effervescent intensification would not obtain. The ritual prime provides the synchronized symbolic substrate on which the effervescent state emerges as a recurring sociological mechanism rather than a chance crowd phenomenon." }, { "child": "collective_effervescence", "parent": "emergence", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Collective effervescence is a specialization of emergence in which gathered individuals' synchronized attention produces heightened shared affect transcending individual states.", "reason": "Collective effervescence is a specialization of emergence. The general emergence pattern is the appearance at a higher level of organization of properties not present in lower-level constituents and not trivially predictable from them. Collective effervescence specializes by naming the constituents \u2014 co-present individuals \u2014 and the higher-level property \u2014 heightened shared emotional energy qualitatively distinct from individual affect, attributed to sacred symbols and generating durable solidarity. The same higher-level-novelty-from-interaction logic applies, with synchronized ritual gathering as the specific interaction rule and ritual energy as the specific emergent property." } ], "collective_efficacy": [ { "child": "collective_efficacy", "parent": "self_efficacy", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Collective efficacy is self-efficacy at the level of a collective agent, adding shared belief and conjoint capability for coordinated group action.", "reason": "Both are task-specific beliefs by an agent about its own capacity to organize and execute action, affecting effort, persistence, and target selection. The child requires the agent to be plural, the capability to be conjoint rather than additive, and the belief to be sufficiently shared to regulate coordinated group effort." } ], "collective_memory": [ { "child": "collective_memory", "parent": "representation", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Collective memory is the specific shape representation takes when a group encodes its shared past through institutions, rituals, and narratives.", "reason": "Collective memory is the specific shape representation takes when the target is a group's past \u2014 events, persons, narratives \u2014 and the medium is the distributed system of monuments, holidays, textbooks, rituals, and commemorative practices through which that past is held in common. It is a structurally-particularized instance of structured mapping from target to medium under a faithfulness convention, with the added commitments that the medium is socially distributed rather than individual, the mapping is reproduced across generations through transmission, and the representation feeds back to constitute the group's identity rather than merely standing for an external object." } ], "collective_systemic_learning": [ { "child": "collective_systemic_learning", "parent": "learning", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Collective systemic learning is a specialization of learning in which the agent doing the updating is a multi-component system rather than an individual.", "reason": "Collective systemic learning is a kind of learning specialized by the locus of the durable update: the learning agent is an organization, team, consortium, or community rather than an individual mind. It inherits learning's general commitment to durable, experience-driven self-update of an agent's internal capability, and adds the specific machinery of system-level acquisition \u2014 knowledge capture, integration, embedded processes, structures, documentation, and culture \u2014 that makes the update organizational rather than personal and that lets the system as a whole adapt while individual members come and go." } ], "color_harmony": [ { "child": "color_harmony", "parent": "unity_variety", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Color harmony presupposes unity and variety because harmonious palettes balance shared color relationships against the differentiation needed for visual interest.", "reason": "Color harmony presupposes unity and variety because its central achievement \u2014 a palette that reads as coordinated rather than discordant \u2014 operates by balancing unifying color relationships (analogous hues, shared saturation, consistent value range) against the variety needed to avoid monotony (complementary contrast, triadic span, accent introduction). Without unity-and-variety's prior structure of relational balance between coherence and differentiation, there is no evaluative dimension along which a palette can be judged harmonious. Color harmony inherits this balancing structure and specializes it to the hue, saturation, and value relations of a color set." } ], "commitment": [ { "child": "commitment", "parent": "constraint", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "A commitment is a reflexive (self-imposed) constraint-creation on one's own future; commitment is a kind-of constraint (the existing commitment_device already sits under constraint).", "reason": "A commitment is a reflexive (self-imposed) constraint-creation on one's own future; commitment is a kind-of constraint (the existing commitment_device already sits under constraint). Constraint supplies the genus: Limits possibilities to guide outcomes. Commitment preserves that general structure while adding its differentia: An agent binds itself in the present to a future course of action or to the truth of a proposition, creating a new constraint on future behavior that others can rely on. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "commitment_device": [ { "child": "commitment_device", "parent": "temporal_inconsistency_and_preference_reversals", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Commitment devices presuppose temporal inconsistency because the strategic self-limitation only makes sense when a later self will be tempted to deviate.", "reason": "A commitment device is a deliberate restriction of one's future choice set imposed by the present self to bind a later self against tempting deviation. The strategy is only intelligible when later preferences are expected to differ from current ones in a predictable way \u2014 when the agent anticipates preference reversal as the future becomes present. Temporal inconsistency names exactly this pattern: the same information and goals produce reversed preferences as horizon shortens. Commitment devices presuppose this dynamic as the threat they are designed to neutralize through preemptive self-binding." }, { "child": "commitment_device", "parent": "constraint", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "A commitment device presupposes constraint because its function is to deliberately restrict the future feasible set of one's later self.", "reason": "A commitment device works by deliberately altering the future choice set so that tempting deviations become impossible or costly \u2014 voluntarily imposing a binding restriction on one's later admissible actions. Without constraint's machinery of binding restriction on admissible configurations, there would be no structural difference between announcing an intention and locking in a course: the device's whole logic is to convert a soft preference into a hard constraint. The parent prime supplies the binding-restriction structure that the commitment device deploys against time-inconsistent preferences." }, { "child": "commitment_device", "parent": "commitment", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Commitment_device is the INTRAPERSONAL-TEMPTATION subcase: a present self foreclosing a tempted future self's options under time-inconsistent preferences.", "reason": "commitment_device is the INTRAPERSONAL-TEMPTATION subcase: a present self foreclosing a tempted future self's options under time-inconsistent preferences. commitment is the general state, also covering binding to ANOTHER party and to a proposition's truth (a vow, a contract, a database COMMIT) with no present/future-self conflict. Re-parent commitment_device under commitment; it keeps its temporal_inconsistency;constraint parents as composition edges." } ], "common_ground": [ { "child": "common_ground", "parent": "common_knowledge", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Common ground contains common knowledge as its core infinite mutual-recognition invariant, then adds grounding, maintenance, abbreviation, and silent-drift machinery.", "reason": "Every proposition admitted to the live common-ground substrate satisfies the technical common-knowledge recursion. Common ground is nevertheless a broader maintained interaction structure: grounding moves build and repair that epistemic invariant, its accumulated body licenses abbreviation, and silent drift creates a distinct failure mode. The invariant is therefore a constituent rather than the whole child or merely external context." } ], "common_knowledge": [ { "child": "common_knowledge", "parent": "hierarchy", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Common knowledge contains a hierarchy as its infinite tower of asymmetrically nested belief levels, with each higher rung depending on all lower rungs.", "reason": "The live epistemic condition is organized as K(p), K(K(p)), and arbitrary higher meta-levels. Each rung has a definite asymmetric position and nests the prior statement; the public event lifts a fact through that level structure to its limit. Hierarchy is therefore the tower's internal organization, while common knowledge adds agents, fact semantics, the lifting threshold, and channel fragility." } ], "common_medium_intermediation": [ { "child": "common_medium_intermediation", "parent": "network_effect", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Common-Medium Intermediation contains a Network Effect because the shared medium becomes more valuable to every participant as more participants adopt it, producing the threshold and lock-in in its signature.", "reason": "The N-by-N to N-by-1 collapse explains the medium's combinatorial value, while Network Effect explains adoption and persistence: every new adopter enlarges the set reachable through the medium and therefore raises its value to existing adopters. The live entry treats that self-reinforcement, adoption threshold, and lock-in as constitutive parts of the pattern." } ], "commons_governance": [ { "child": "commons_governance", "parent": "governance", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Commons governance is governance specialized to durable community stewardship of a shared resource.", "reason": "Governance is the general architecture of authority, accountability, decision rights, and dispute resolution. Commons Governance inherits that architecture and adds a shared resource, a community of co-users or contributors, monitoring, congruent rules, graduated sanctions, and nested authority designed to sustain distributed stewardship." } ], "communication_repair": [ { "child": "communication_repair", "parent": "coordination", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Communication repair is coordination specialized to detecting and restoring divergence in shared understanding over an unreliable channel.", "reason": "Coordination aligns independently controlled agents or processes so their actions produce a coherent result. Communication repair instantiates that pattern after shared understanding diverges: participants detect the mismatch, pause the primary exchange, use a meta-channel act to restore alignment, and resume. It adds the differentia of an unreliable channel, detected divergence, a repair protocol, and a resumption gate. Every defined communication repair is restorative coordination, although most coordination is not repair." }, { "child": "communication_repair", "parent": "channel", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Communication repair presupposes a channel carrying both the primary exchange and the meta-channel traffic used to detect, repair, and resume after divergence.", "reason": "Every repair instance exchanges shared state over an unreliable channel, detects divergence in that stream, sends a meta-channel act through the same medium or a back-channel, and reinserts the repaired state. The conduit is external transmission infrastructure, not a repair protocol subtype or an object that depends on repair." }, { "child": "communication_repair", "parent": "feedback", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Communication repair contains a feedback loop in which detected divergence is returned through a meta-channel to change the shared state before the primary exchange resumes.", "reason": "A repair episode observes the state produced by the primary exchange, compares the participants' interpretations, routes evidence of divergence back into the interaction, and uses the response to update shared state. Output from one pass therefore becomes corrective input to the next. The meta-channel, divergence detector, and resumption gate specialize that loop for communication, but without feedback there is no return path by which a misunderstanding can alter the exchange that produced it." } ], "community_distributed_adversarial_learning": [ { "child": "community_distributed_adversarial_learning", "parent": "adversarial_boundary_navigation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Community-distributed adversarial learning is adversarial boundary navigation performed by a sharing population whose pooled discoveries outpace the principal's rule-update cycle.", "reason": "Every instance adaptively probes a deployed rule's discoverable boundary for low-cost configurations that preserve the forbidden payload. It adds a distributed adversary population, low-cost sharing, a public-good technique corpus, amortized discovery cost, and a collective learning rate that exceeds the principal's retraining or rule-revision cycle." } ], "commutativity": [ { "child": "commutativity", "parent": "invariance", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Commutativity is a kind of invariance: the result of a binary operation is preserved under the swap-of-operands transformation.", "reason": "Commutativity says that a o b equals b o a for all elements, so the result of the operation is unchanged under the transformation that swaps the operand order. That is the precise structure of Invariance: a named feature (the operation's value) preserved under a named family of transformations (operand permutation). Commutativity specializes invariance by fixing the operation as a binary combiner and the transformation as the order-swap on its two arguments." }, { "child": "commutativity", "parent": "symmetry", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Commutativity is a specialization of symmetry in which the transformation group permutes the operands of a binary operation.", "reason": "Commutativity is a specialization of symmetry in which the symmetry group is the swap of operands and the operation is left invariant under that swap: a circ b equals b circ a for all operands. It inherits the general symmetry commitment that a system is invariant under a specified group action, and specializes by fixing the group to the two-element permutation of operands of a binary operation. When this swap symmetry holds, sequencing collapses one dimension and unlocks reordering, parallelization, and algebraic manipulations unavailable in non-commutative settings." } ], "comparative_advantage": [ { "child": "comparative_advantage", "parent": "exchange", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Comparative advantage presupposes exchange because the welfare-improving specialization it recommends only materializes when surpluses are actually traded.", "reason": "Comparative advantage presupposes exchange because the principle recommends specialization based on relative opportunity costs precisely so that the specialized output can be exchanged for surplus from other specialists. Without exchange's bilateral conditional-transfer structure, specialization just produces lopsided autarkic outputs and no mutual gain. Exchange supplies the substrate on which the positive-sum claim is cashed out: the agents involved must trade for the comparative-advantage allocation to be welfare-improving rather than welfare-destroying, so the principle is parasitic on the availability of exchange." }, { "child": "comparative_advantage", "parent": "opportunity_cost", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Comparative advantage is the specific shape opportunity cost takes when production decisions are compared across agents with different alternative-use profiles.", "reason": "Comparative advantage is the specific shape opportunity cost takes when the choice context is the allocation of production across multiple agents, and the relevant comparison is each agent's opportunity cost of producing one good relative to another. It is a structurally-particularized instance of evaluating choices by the value of the best forgone alternative, with the added commitments that the comparison is interpersonal \u2014 not within one agent's options but across agents' relative trade-offs \u2014 and that the welfare result is positive-sum specialization-and-trade based on relative rather than absolute production efficiencies." } ], "comparative_method": [ { "child": "comparative_method", "parent": "comparison", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "The comparative method is the specific shape comparison takes when it becomes a substitute-for-experiment research design across selected cases.", "reason": "The comparative method is the specific shape comparison takes when it becomes a systematic research strategy in domains where controlled experimentation is impossible. Comparison's general anatomy \u2014 comparands, shared frame, alignment rule, output relation \u2014 is structurally particularized into selected societies, eras, or organizations as comparands; Mill's methods of agreement and difference as alignment rules; and inferences about what varies and why as outputs. The general operation is preserved; the specific shape is its disciplined deployment as inferential substitute for randomization through deliberate case selection." } ], "comparative_statics": [ { "child": "comparative_statics", "parent": "equilibrium", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "'Equilibrium is the resting-state object comparative statics operates on; comparative statics is the second-order move of comparing two such states...", "reason": "'Equilibrium is the resting-state object comparative statics operates on; comparative statics is the second-order move of comparing two such states... the comparison operator that sits one level above the equilibrium noun.' It presupposes equilibrium. Equilibrium supplies the prerequisite condition: Balanced state. Comparative Statics operates against that background: Compare two equilibria before and after a parameter change, ignoring the path between them. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "comparison": [ { "child": "comparison", "parent": "self_checking", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "The comparator that flags divergence between the redundant representations.", "reason": "The comparator that flags divergence between the redundant representations. After the cognitive_science frame is stripped away, the retained structural roles are those of Self Checking: A system detects errors in its own output by computing the answer through partially-independent paths and comparing. Comparison adds the local frame and commitments expressed in its identity: Place items in a shared frame along chosen dimensions to read off a relation between them. The parent pattern remains recognizable without that vocabulary, while the child is the framed realization of it. That preservation test establishes decomposition rather than taxonomic subsumption." } ], "compellence": [ { "child": "compellence", "parent": "coercion", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Compellence is a specialization of Coercion, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Coercion supplies the genus: Shaping another agent's choice by manipulating the costs and threats attached to their options, so the agent itself 'chooses' the coercer's preferred action \u2014 the common parent of forcing an action (compellence) and forcing restraint (deterrence). Compellence preserves that general structure while adding its differentia: Imposing ongoing costs to force a positive action and keeping them live until compliance \u2014 the action-demanding counterpart to deterrence, structurally harder because compliance is publicly visible and deadline-bound. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "competitive_niche_differentiation": [ { "child": "competitive_niche_differentiation", "parent": "specialization", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Competitive niche differentiation is specialization in which narrowing occurs along dimensions that reduce overlap with rivals.", "reason": "Participants concentrate on a narrower range of resources, users, functions, or performance axes and gain local fit at the cost of general reach. It inherits Specialization's narrowing and performance trade, adding the competitor-relative direction of that narrowing." }, { "child": "competitive_niche_differentiation", "parent": "competition", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Competitive niche differentiation presupposes negatively coupled outcomes over an overlapping stake.", "reason": "Differentiation is a niche response only when the initial overlap makes success rivalrous and narrowing reduces that coupling. Without competition, different roles may reflect ordinary division of labor or arbitrary variety rather than competitive niche differentiation." } ], "complement": [ { "child": "complement", "parent": "set_and_membership", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Every Complement strictly presupposes a declared universe, a designated subset, and binary membership from which the residual is defined.", "reason": "Complement is the residual operation over an already specified universe and subset. It cannot be stated without elements, binary membership, and collection-as-object, but it is not itself the primitive Set and Membership pattern. It adds universe relativity, exhaustive residual formation, and double-complement closure." } ], "complete_enumeration": [ { "child": "complete_enumeration", "parent": "completeness", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Removing population-mapping and measurement-program vocabulary from Complete Enumeration leaves Completeness as its no-required-unit-missing structural criterion.", "reason": "Strip the defined population, unit identity, measurement passes, provenance, census cost, and domain-specific downstream inferences. What remains is the requirement that the bounded structure contain no gap relative to its declared coverage criterion. Complete Enumeration is the applied discipline that attempts, audits, and exploits this criterion for population mapping; it is not itself a species of the achieved no-gaps property." } ], "complexity_time_space": [ { "child": "complexity_time_space", "parent": "constraint", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Computational complexity is a specific kind of constraint, binding admissible algorithms to those whose resource growth rate keeps problems practically solvable.", "reason": "Computational complexity is a specialization of constraint. The general pattern restricts admissible configurations to those satisfying a binding condition, with the feasible set as a first-class object. Complexity instantiates this with the binding condition being asymptotic resource growth: algorithms whose time or space scales as polynomial in input size are admissible for large instances, while exponential-time procedures are practically infeasible. The polynomial-versus-exponential boundary partitions the algorithmic feasible set, supplying a machine-independent admissibility criterion that governs which problems can be solved at scale." }, { "child": "complexity_time_space", "parent": "scaling_and_scale_dependence", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Computational complexity is the specific shape scaling takes when the system is an algorithm and the resource cost grows with input size.", "reason": "Computational complexity is the specific shape scaling and scale dependence takes when the system in question is an algorithm and the property changing qualitatively with size is resource usage -- time or space. The qualitative-shift signature that scale dependence names appears as the polynomial-versus-exponential boundary: an algorithm efficient at small inputs may be infeasible at large ones not from implementation error but from asymptotic growth rate. Big-O classification is the scale-dependence taxonomy of computational systems." }, { "child": "complexity_time_space", "parent": "asymptotic_behavior", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Complexity (Time/Space) is a specialization of Asymptotic Behavior, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Asymptotic Behavior supplies the genus: In the limit, only the dominant term matters, so behavior is classified by growth class rather than exact value and small or fast-decaying contributions are discarded. Complexity (Time/Space) preserves that general structure while adding its differentia: Resource scaling with input size. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." }, { "child": "complexity_time_space", "parent": "complexity", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Parent's own core_idea enumerates computational time/space complexity as one of its constitutive formalizations.", "reason": "Parent's own core_idea enumerates computational time/space complexity as one of its constitutive formalizations. Complexity supplies the genus: Measures system intricacy. Complexity (Time/Space) preserves that general structure while adding its differentia: Resource scaling with input size. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "composition": [ { "child": "composition", "parent": "gestalt_principles", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Composition presupposes Gestalt principles because deliberate arrangement of elements into a unified whole relies on the perceptual grouping rules Gestalt names.", "reason": "Composition presupposes Gestalt principles because the orchestration of visual or conceptual elements into a perceived unified whole \u2014 its central commitment \u2014 works through the perceptual mechanisms by which observers group discrete stimuli into structured wholes: proximity, similarity, continuity, closure, figure-ground, common fate. Without Gestalt's prior grouping operations, the compositional arrangement would register only as a collection of separate items rather than as a coherent ensemble. Composition inherits Gestalt's grouping-rule apparatus and deploys it intentionally, treating the perceptual rules as design levers for guiding attention, weighting elements, and producing coherence." } ], "compression": [ { "child": "compression", "parent": "aggregation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Compression is a kind of aggregation: it collapses redundant detail into a unified shorter representation while retaining chosen structure.", "reason": "Compression encodes information in a shorter representation by exploiting redundancy, deliberately losing or restructuring detail to retain the features that matter for reconstruction or downstream use. That is the move of Aggregation: collapsing many items into a unified form that keeps chosen features while suppressing granular detail. Compression specializes aggregation by tying the suppressed detail to redundancy or perceptual unimportance and by holding a reconstruction or fidelity criterion as the design constraint." }, { "child": "compression", "parent": "optimization", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Compression is a kind of optimization: it minimizes representation length subject to a reconstruction-fidelity constraint.", "reason": "Compression seeks the shortest encoding of a source under a chosen fidelity criterion \u2014 exact reconstruction for lossless, bounded distortion for lossy \u2014 and trades coding cost against quality at the chosen operating point. That is the optimization triplet: decision variable (the encoding), objective (representation length), and constraint (fidelity). Compression specializes optimization to the encoding-length objective, with rate-distortion theory and entropy bounds setting the achievable frontier." }, { "child": "compression", "parent": "abstraction", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Compression is a specialization of abstraction in which the retained structure is information-theoretic regularity and the discarded structure is the redundancy.", "reason": "Compression is a specialization of abstraction in which the purpose-relative retention is reduction of representational length: keep the information-theoretic content needed for exact or approximate reconstruction, drop the statistical or perceptual redundancy. It inherits abstraction's general commitment to purpose-relative retention of structure with explicit naming of what is kept and dropped, and specializes by fixing the purpose to storage or transmission economy and the projection to one that shortens symbol count, with the Shannon limit setting the floor on lossless reduction." } ], "computability": [ { "child": "computability", "parent": "algorithm", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Per dossier and file: computability is 'the boundary/meta-level relation that algorithm presupposes' \u2014 the existence-question (does an effective procedure exist at all?) over algorithm's central object.", "reason": "Per dossier + file: computability is 'the boundary/meta-level relation that algorithm presupposes' \u2014 the existence-question (does an effective procedure exist at all?) over algorithm's central object. algorithm is the positive object, computability the partition between buildable and provably-unbuildable. Presupposes the notion of effective procedure." } ], "concentration": [ { "child": "concentration", "parent": "resource_management", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Concentration (massing resources at a decisive point) is a specific allocation strategy within resource management's policy space.", "reason": "Concentration (massing resources at a decisive point) is a specific allocation strategy within resource management's policy space. Resource Management supplies the genus: Allocation of finite assets. Concentration preserves that general structure while adding its differentia: Massing a divisible resource or effort at the decisive point rather than spreading it thin \u2014 the deliberate creation of local superiority by accepting weakness elsewhere. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "concept_drift": [ { "child": "concept_drift", "parent": "temporal_decay_and_degradation", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "A learned rule loses validity OVER TIME \u2014 but the RULE is intact and the WORLD moved (the relationship degraded), distinct from the substrate physically decaying.", "reason": "A learned rule loses validity OVER TIME \u2014 but the RULE is intact and the WORLD moved (the relationship degraded), distinct from the substrate physically decaying. Temporal Decay and Degradation supplies the prerequisite condition: System properties or capabilities systematically diminish over time. Concept Drift operates against that background: A learned rule silently loses validity when the input\u2013outcome relationship it was calibrated on changes underneath it. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." }, { "child": "concept_drift", "parent": "non_stationary_objective", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Concept_drift is 'one substrate-specific case' \u2014 the ML instance (a data distribution shifting under a deployed model) of the substrate-neutral non-stationary-objective structure.", "reason": "Concept_drift is 'one substrate-specific case' \u2014 the ML instance (a data distribution shifting under a deployed model) of the substrate-neutral non-stationary-objective structure. Non-Stationary Objective supplies the genus: The target moves at a rate comparable to or faster than the system can converge on it, so tracking error replaces steady-state error. Concept Drift preserves that general structure while adding its differentia: A learned rule silently loses validity when the input\u2013outcome relationship it was calibrated on changes underneath it. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." }, { "child": "concept_drift", "parent": "calibrated_rule_vs_moving_world", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Concept Drift is a specialization of Calibrated Rule versus Moving World, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Calibrated Rule versus Moving World supplies the genus: A rule, model, or policy fitted to a past distribution of the world degrades as the world it was calibrated on drifts away from that distribution. Concept Drift preserves that general structure while adding its differentia: A learned rule silently loses validity when the input\u2013outcome relationship it was calibrated on changes underneath it. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "conceptual_blending": [ { "child": "conceptual_blending", "parent": "analogy", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Conceptual blending presupposes analogy because cross-space projection into a blended space relies on prior structural mapping between the input domains.", "reason": "Conceptual blending presupposes analogy because constructing a blended space by selectively projecting elements from two or more input spaces requires a cross-space mapping that identifies correspondences between elements \u2014 exactly the structural role-alignment that analogy supplies. Without analogy's relational mapping between source and target domains, there would be no correspondence structure to feed selective projection, and the blend could not preserve a coherent generic space capturing what the inputs share. Analogy supplies the mapping operation; blending adds the further move of constructing a new integrated space with emergent structure not present in either input alone." } ], "concurrent_cross_functional_collaboration": [ { "child": "concurrent_cross_functional_collaboration", "parent": "coordination", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Concurrent cross-functional collaboration is a specialization of coordination \u2014 specifically, coordination among diverse-discipline specialists working simultaneously on a shared design problem.", "reason": "Concurrent cross-functional collaboration is a specialization of coordination in which the actors being aligned are specialists from different functional disciplines and the alignment occurs simultaneously rather than through sequential handoff. Where coordination names the active alignment of independently controlled actors toward a coherent collective outcome generally, this specialization fixes the actor composition (cross-functional), the temporal structure (concurrent), and the medium of alignment (tight communication loops with shared decision authority around design integration)." }, { "child": "concurrent_cross_functional_collaboration", "parent": "task_interdependence", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Concurrent cross-functional collaboration presupposes task interdependence because its simultaneous engagement is justified only when functional tasks have reciprocal couplings.", "reason": "Concurrent cross-functional collaboration is justified only when the tasks being performed are reciprocally interdependent \u2014 when design, manufacturing, and operations decisions iteratively shape one another rather than feeding forward in a fixed sequence. Without task interdependence's machinery of workflow coupling, the simultaneous engagement of multiple specialists would be wasteful: tasks that are merely pooled or sequential need only sequential handoff. The reciprocal interdependence supplies the structural condition that makes concurrent engagement the efficient coordination form." } ], "conditional_access": [ { "child": "conditional_access", "parent": "opportunity_asymmetry", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Conditional access requires unequal control over the desired item and therefore unequal feasible action sets.", "reason": "The controller can force acceptance of the coupled item only because it controls access to something the recipient cannot obtain on equivalent terms elsewhere; without that opportunity asymmetry the take-both-or-neither leverage disappears." } ], "conditional_probability": [ { "child": "conditional_probability", "parent": "probability", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Per dossier: 'record subsumption under probability.' Conditioning is the relativizing/re-normalization move on top of the base measure \u2014 a specialization (one of probability's six signature components promoted to a distinct relational primitive: measure re-normalization to an information context).", "reason": "Per dossier: 'record subsumption under probability.' Conditioning is the relativizing/re-normalization move on top of the base measure \u2014 a specialization (one of probability's six signature components promoted to a distinct relational primitive: measure re-normalization to an information context). Probability supplies the genus: Quantifies uncertainty and likelihoods. Conditional Probability preserves that general structure while adding its differentia: Re-normalize a probability measure to the information context that is taken as given. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "conditioning_behavioral": [ { "child": "conditioning_behavioral", "parent": "learning", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Behavioral conditioning is a specialization of learning; it is the family of contingency-detection mechanisms that durably update behavior through pairing.", "reason": "Learning is the process by which an agent durably updates an internal capability \u2014 knowledge, skill, model, or behavior \u2014 as a result of experience. Behavioral conditioning is the specific family of learning mechanisms that detect statistical contingencies between environmental events (stimulus-response pairings, contingent reinforcement) and adjust behavior accordingly, with generalization, discrimination, and extinction as characteristic features. It inherits learning's durable-experience-driven-self-update structure and adds the specific mechanism \u2014 contingency detection through pairing \u2014 that produces the update. A specialization of learning keyed to associative contingency." }, { "child": "conditioning_behavioral", "parent": "feedback", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Behavioral conditioning presupposes feedback because learned associations are forged by routing the consequence of a response back to modulate the response itself.", "reason": "Behavioral conditioning depends on the closure of a loop between behavior and consequence: the organism emits a response, the environment delivers reinforcement or punishment, and the returned signal modulates the probability of the response on the next cycle. Without the feedback arrangement \u2014 output measured, returned along a path, coupled with a sign that strengthens or weakens \u2014 the contingencies that conditioning detects could not be detected, and the response-strengthening and extinction dynamics could not arise. Feedback is the structural substrate on which conditioning operates." } ], "confidence_annotation": [ { "child": "confidence_annotation", "parent": "verification", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "A graded warrant marker summarizing how-much-to-trust once weighing is done; presupposes the verification/evidence-weighing whose verdict it compresses into a portable, separable label.", "reason": "A graded warrant marker summarizing how-much-to-trust once weighing is done; presupposes the verification/evidence-weighing whose verdict it compresses into a portable, separable label. Verification supplies the prerequisite condition: Check that an object conforms to its specification via a defined procedure yielding evidence and a verdict. Confidence Annotation operates against that background: A graded warrant marker attached to a claim that travels with it and tells downstream consumers how much weight to place on it. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "confidence_intervals": [ { "child": "confidence_intervals", "parent": "uncertainty", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Confidence intervals are a specific kind of uncertainty quantification, supplying interval estimates with calibrated long-run coverage.", "reason": "Confidence intervals are a specialization of uncertainty. The general pattern is the structural condition of incomplete knowledge about a parameter, with the commitment to specify the unknown, the evidence, the form of unknowing, and the calibration. Confidence intervals instantiate this with the evidence being sample data, the form being a sampling-distribution-derived interval, and the calibration being the pre-specified long-run frequency with which the procedure covers the true parameter. It is uncertainty formalized as a procedure-level coverage claim about the unknown, distinct from but complementary to Bayesian credible intervals over the parameter directly." }, { "child": "confidence_intervals", "parent": "statistical_inference", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Confidence intervals presuppose statistical inference because they are an interval-estimate procedure whose calibrated coverage is defined within the inferential framework.", "reason": "A confidence interval is a procedure that produces interval estimates with a pre-specified long-run coverage probability under repeated sampling \u2014 a structure intelligible only within statistical inference's machinery of treating observed data as one draw from a probability model and reasoning about underlying parameters under sampling variability. Without that inferential framework, the long-run frequency interpretation that gives the interval its calibration would be vacuous, and the procedure would degenerate to bare data summarization. Statistical inference supplies the sampling-framework substrate the confidence-interval procedure operates in." } ], "confidentiality": [ { "child": "confidentiality", "parent": "constraint", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Confidentiality is the information-use species of constraint, restricting an authorized holder's admissible disclosures and downstream actions.", "reason": "Confidentiality is the information-use species of constraint, restricting an authorized holder's admissible disclosures and downstream actions. A binding condition reduces the feasible set of actions to those satisfying it, regardless of which otherwise available action the holder prefers. The constrained actions are uses and disclosures of protected information by a party already authorized to possess it, under release and exception rules." } ], "configuration_drift": [ { "child": "configuration_drift", "parent": "traceability", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Drift is the divergence between a system-of-record (intended state) and the running state; it presupposes a maintained authoritative record against which reality could be compared \u2014 the traceability infrastructure whose absence-of-reconciliation it names.", "reason": "Drift is the divergence between a system-of-record (intended state) and the running state; it presupposes a maintained authoritative record against which reality could be compared \u2014 the traceability infrastructure whose absence-of-reconciliation it names. Traceability supplies the prerequisite condition: The infrastructure of bidirectional links that lets any element be followed backward to its origin and forward to its uses, turning opaque processes into auditable, queryable histories. Configuration Drift operates against that background: The silent, monotonic divergence between a system's recorded intended state and its actual running state, driven by accumulated out-of-band changes that bypass the record until a forced reconciliation exposes the gap. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "confirmation_bias": [ { "child": "confirmation_bias", "parent": "heuristic", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Confirmation Bias is a kind of heuristic: a fast rule favoring belief-consistent processing yields systematic error in evidence evaluation.", "reason": "Confirmation bias is the systematic tendency to favor information processing that supports prior belief \u2014 through biased search, biased interpretation, and biased recall \u2014 over symmetric testing. Functionally it is a fast rule that economizes on the costs of fully balanced evaluation at the price of characteristic directional error. That is the heuristic profile: a simplified procedure whose value depends on the trade-off between speed and accuracy. Confirmation bias specializes heuristic to belief-protecting evidence processing." }, { "child": "confirmation_bias", "parent": "bias", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Confirmation bias is a specialization of bias in which the systematic displacement favors processing that supports the prior belief.", "reason": "Confirmation bias is a specialization of bias. Specifically, it instantiates the systematic-displacement-from-the-true-value pattern in the information-processing subclass: biased search, biased interpretation, and biased memory together skew evidence accumulation in the direction of the held hypothesis. It exhibits bias's defining signature -- a sign and direction surviving the accumulation of more data -- with the offset traced to the asymmetric handling of confirming versus disconfirming evidence, distinguishing this class within the broader catalog of cognitive biases." } ], "confirmation_dialog": [ { "child": "confirmation_dialog", "parent": "decision", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "A commitment checkpoint splits a single fast DECISION into two separated acts (intent and costly re-affirmation) at the last reversible moment.", "reason": "A commitment checkpoint splits a single fast DECISION into two separated acts (intent + costly re-affirmation) at the last reversible moment. It presupposes a decision it gates and a reversibility threshold; structural scaffolding around an existing choice." } ], "conflict_of_interest": [ { "child": "conflict_of_interest", "parent": "role_conflict", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Conflict of interest presupposes role conflict because incompatible duties and interests pulling one agent in different directions instantiates the multi-role strain pattern.", "reason": "Conflict of interest arises when a person or institution holds multiple duties, relationships, or financial interests pulling in incompatible directions, such that pursuing one undermines another. The structure is a particular case of role conflict: a single agent simultaneously occupies positions whose embedded expectation-sets cannot all be satisfied. Role conflict supplies the underlying multi-incumbency-with-incompatible-expectations pattern. Conflict of interest specializes it to fiduciary and incentive contexts, where the incompatible roles concern duties to principals or self-versus-other interests, with the same structural impossibility of simultaneous full compliance." } ], "confounding": [ { "child": "confounding", "parent": "experimental_design", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Confounding presupposes Experimental Design: identifying and controlling third-variable common causes is the central problem the design must address.", "reason": "Confounding occurs when a third variable that is a common cause of putative cause and effect distorts the observed association, fabricating, exaggerating, attenuating, or reversing it. The concept is meaningful only against a design that seeks to license causal or comparative inference: randomization, blocking, stratification, and matching all exist precisely to neutralize confounders. Confounding presupposes Experimental Design as the framework whose ambitions it threatens and whose protocols it forces." }, { "child": "confounding", "parent": "bias", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Confounding is a kind of bias: it produces a systematic, non-averaging displacement of the estimated causal effect from the true effect.", "reason": "Confounding distorts the estimated relationship between cause and effect in a consistent direction set by the common cause's structure, with the displacement persisting and often growing as samples accumulate rather than averaging out. That is the defining contrast between Bias and noise: bias is a persistent offset that more data does not erase. Confounding specializes bias to the causal-inference case, where the offset arises from non-causal paths between treatment and outcome rather than from estimator construction." }, { "child": "confounding", "parent": "causality", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Confounding presupposes causality because the third-variable distortion is defined relative to the true causal relation it obscures.", "reason": "Confounding presupposes causality because the very claim that an observed association is distorted -- fabricated, attenuated, or reversed -- requires a true causal relation against which the distortion is measured. The confounder Z is a common cause of X and Y in the causal graph, and adjustment is required to recover the genuine X-to-Y causal effect. Without causality's four-component structure of cause, effect, productive connection, and counterfactual sensitivity, there is no causal target to be confounded and no formal criterion separating spurious association from genuine effect." } ], "confused_deputy": [ { "child": "confused_deputy", "parent": "untrusted_input_execution", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Confused Deputy is a specialization of Untrusted Input Execution, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Untrusted Input Execution supplies the genus: Attacker-influenced input crosses a data-to-control (or authority) boundary and a correctly-operating intermediary executes it with the intermediary's own authority, so the attacker borrows the defender's privilege without ever violating the intermediary's rules. Confused Deputy preserves that general structure while adding its differentia: A privileged intermediary acts on its own authority while the intent originated with an outsider who lacks it, so authority is borrowed without intent being tracked. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." }, { "child": "confused_deputy", "parent": "agency_problem", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "A privileged intermediary executing an outsider's intent without authority is a specific misalignment-of-authority-and-intent instance of the principal-agent structure.", "reason": "A privileged intermediary executing an outsider's intent without authority is a specific misalignment-of-authority-and-intent instance of the principal-agent structure. Agency Problem supplies the genus: Misaligned incentives. Confused Deputy preserves that general structure while adding its differentia: A privileged intermediary acts on its own authority while the intent originated with an outsider who lacks it, so authority is borrowed without intent being tracked. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "conjugate_observable_complementarity": [ { "child": "conjugate_observable_complementarity", "parent": "complementarity", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Conjugate-Observable Complementarity is a specialization of Complementarity, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Complementarity supplies the genus: Two non-overlapping roles that jointly exhaust a whole and require each other. Conjugate-Observable Complementarity preserves that general structure while adding its differentia: Certain observable pairs cannot be jointly specified to arbitrary precision because sharpening one structurally blurs its conjugate \u2014 a built-in trade-off of the system, not a measurement limitation. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." }, { "child": "conjugate_observable_complementarity", "parent": "trade_offs", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Conjugate-Observable Complementarity is a specialization of Trade-offs, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Trade-offs supplies the genus: Balancing competing priorities. Conjugate-Observable Complementarity preserves that general structure while adding its differentia: Certain observable pairs cannot be jointly specified to arbitrary precision because sharpening one structurally blurs its conjugate \u2014 a built-in trade-off of the system, not a measurement limitation. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." }, { "child": "conjugate_observable_complementarity", "parent": "uncertainty", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Conjugate-Observable Complementarity is typically a specialization of Uncertainty, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Uncertainty supplies the genus: Incomplete knowledge. Conjugate-Observable Complementarity preserves that general structure while adding its differentia: Certain observable pairs cannot be jointly specified to arbitrary precision because sharpening one structurally blurs its conjugate \u2014 a built-in trade-off of the system, not a measurement limitation. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "conjugate_variables": [ { "child": "conjugate_variables", "parent": "symmetry", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Conjugate variables presupposes symmetry because the canonical transformation mediating between the two complementary descriptions is a symmetry of the underlying physics.", "reason": "Conjugate variables couple two complementary descriptions of a system via a canonical transformation or integral transform that preserves the essential physics while exchanging which features are local. This presupposes symmetry: invariance under a specified group of transformations, with the algebraic commitment that the stated transformation leaves the system unchanged in a specified sense. The canonical transformation is precisely such a structure-preserving group action on phase space; the Fourier kernel is a unitary transformation preserving total content. Without symmetry's transformation-group framework, the equivalence between conjugate descriptions has no algebraic substrate." }, { "child": "conjugate_variables", "parent": "invariance", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Conjugate variables presupposes invariance because the canonical transformation between the two descriptions preserves the underlying physical content.", "reason": "Conjugate variables couple two descriptions of a system through a canonical transformation that preserves essential physics or information content while exchanging which features are local. This presupposes invariance: a named feature remaining unchanged under a named family of transformations, with the joint commitment to what is preserved and which operations preserve it. The conjugate transformation preserves the action functional, the commutator structure, or the total signal energy; what is preserved (the invariant) is what makes the two descriptions equivalent for physical purposes despite their different sharpness in different variables." }, { "child": "conjugate_variables", "parent": "conjugate_observable_complementarity", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Conjugate variables presuppose measurement uncertainty and complementarity because the pair only acquires its joint under-determination through complementary measurement structure.", "reason": "Conjugate variables presuppose measurement uncertainty and complementarity because the defining feature of a conjugate pair, beyond a formal coupling like a commutator or Fourier kernel, is that sharpening one side necessarily broadens the other. That joint under-determination is precisely what complementarity names: a structural trade-off in what can be simultaneously specified, not a contingent instrumental limit. Without the prior commitment that certain observables are complementary in this irreducible sense, the canonical pairing would reduce to a routine change of variables with no inherent measurement constraint." } ], "conjunctive_path_activation": [ { "child": "conjunctive_path_activation", "parent": "causality", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "A causal-graph property: a latent path whose state-conditional edges conduct only under an AND of factors.", "reason": "A causal-graph property: a latent path whose state-conditional edges conduct only under an AND of factors. Presupposes a directed causal structure; left at composition since it is a property OF a causal graph, not an is-a." } ], "connectedness": [ { "child": "connectedness", "parent": "network", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "'A network is the substrate \u2014 elements plus relations; connectedness is one PROPERTY of that substrate (is it one piece?).' It presupposes the network of elements-and-relations and reads only the reachability partition.", "reason": "'A network is the substrate \u2014 elements plus relations; connectedness is one PROPERTY of that substrate (is it one piece?).' It presupposes the network of elements-and-relations and reads only the reachability partition. Network supplies the prerequisite condition: Models interactions between components. Connectedness operates against that background: A whole that cannot be split into parts with no relation crossing between them. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "consensus": [ { "child": "consensus", "parent": "coordination", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Consensus is Coordination specialized to producing one shared decided value under an explicit fault model while satisfying agreement, validity, and termination.", "reason": "Coordination is the general alignment of independently controlled actors. Consensus is its strict agreement-forming species: participants begin with divergent proposals, a fault model bounds crash, omission, or Byzantine behavior, and a protocol must jointly satisfy agreement, validity, and termination. Ordinary coordination need not decide one value or confront FLP and quorum thresholds, so the additional commitments are genuine differentia." } ], "consent": [ { "child": "consent", "parent": "authority", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Consent presupposes authority because consent operates by granting another party legitimate authority over a domain that would otherwise be off-limits.", "reason": "Consent presupposes authority because its essential function is to confer legitimate decision-making power over a domain \u2014 body, property, data, action \u2014 that the consenting agent would otherwise control exclusively. Without authority's prior structure of recognized right-to-decide, the act of consenting would have nothing to transfer or authorize. Consent inherits authority's general apparatus of legitimate power to bind and supplies the specific mode by which that power can arise from below: through the autonomous, informed, voluntary authorization of the party whose domain is at stake, generating an obligation the recipient could not otherwise claim." } ], "conservation_event": [ { "child": "conservation_event", "parent": "comparison", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "A conservation event presupposes comparing a system's current condition with an earlier reference state so that the decay to be arrested and the restoration direction are determinate.", "reason": "Every conservation event places the system's current condition and an earlier reference state in a shared frame, selects the dimensions that matter for preservation, and reads off the departure that the bounded intervention will arrest or reverse. Without that comparison there is no determinate decay trajectory, restoration direction, or traceable basis for preserve/restore/leave decisions. Comparison is required analytical machinery, not the genus of the intervention itself." } ], "conservation_laws": [ { "child": "conservation_laws", "parent": "invariance", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Conservation laws are the temporal specializations of invariance in which a specified quantity remains unchanged through a system's allowed evolution.", "reason": "Invariance names persistence under a specified transformation. A conservation law fixes that transformation to the system's evolution through time and fixes the invariant to an additive or otherwise measurable quantity. The system may redistribute or transform the quantity internally, but its closed-boundary total remains unchanged. Conservation Laws therefore specializes Invariance while adding quantity, boundary, flux-balance, and time-evolution commitments." } ], "consistency": [ { "child": "consistency", "parent": "constraint", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "'Consistency is a META-property of a COLLECTION of constraints' \u2014 whether the intersection of all their admissible regions is nonempty.", "reason": "'Consistency is a META-property of a COLLECTION of constraints' \u2014 whether the intersection of all their admissible regions is nonempty. A lone constraint is never inconsistent; consistency presupposes a set of constraints. Constraint supplies the prerequisite condition: Limits possibilities to guide outcomes. Consistency operates against that background: A set of commitments cannot jointly derive a contradiction. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "consistency_model": [ { "child": "consistency_model", "parent": "concurrency", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "'Concurrency is the CONDITION \u2014 multiple operations in flight; a consistency model is the CONTRACT specifying which observations of that concurrency are legal.", "reason": "'Concurrency is the CONDITION \u2014 multiple operations in flight; a consistency model is the CONTRACT specifying which observations of that concurrency are legal. Concurrency creates the problem the model governs.' It presupposes concurrency. Concurrency supplies the prerequisite condition: Manage simultaneous processes. Consistency Model operates against that background: An explicit contract over which observations of shared state are legal when updates are concurrent. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." }, { "child": "consistency_model", "parent": "contract", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "A consistency model is explicitly an explicit contract specifying legal observations of shared state, fitting the general obligations-and-permissions bundle structure of contract.", "reason": "A consistency model is explicitly an explicit contract specifying legal observations of shared state, fitting the general obligations-and-permissions bundle structure of contract. Contract supplies the genus: A multi-party bundle of obligations, breach criteria, and remedies under an accepted enforcement regime. Consistency Model preserves that general structure while adding its differentia: An explicit contract over which observations of shared state are legal when updates are concurrent. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "construct_validity": [ { "child": "construct_validity", "parent": "proxy_target_fidelity", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Construct_validity is the PSYCHOMETRIC specialization (proxy=instrument, target=latent construct) of the cross-domain proxy->target fidelity genus.", "reason": "Construct_validity is the PSYCHOMETRIC specialization (proxy=instrument, target=latent construct) of the cross-domain proxy->target fidelity genus. Proxy\u2013Target Fidelity supplies the genus: How faithfully an observable proxy tracks the unobservable target it stands in for \u2014 the degree to which acting on, optimizing, or inferring from the proxy is acting on the target itself. Construct Validity preserves that general structure while adding its differentia: Whether a measurement procedure actually captures the theoretical construct it claims to, rather than a correlated but distinct surrogate, across a three-layer construct-proxy-signal gap. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "constructivist_learning": [ { "child": "constructivist_learning", "parent": "learning", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Constructivist learning is a specialization of learning that frames the durable update as active meaning-making rather than passive reception.", "reason": "Constructivist learning is a kind of learning specialized by its account of how the durable update happens: the learner actively constructs knowledge through direct experience, reflection, and social interaction rather than receiving pre-formed content from an authority. It inherits learning's general commitment to durable, experience-driven self-update of an agent's internal state, and adds the specific epistemological commitment that meaning is produced bidirectionally through the learner's assimilation and accommodation of environmental encounters \u2014 contrasting with transmission models that treat the learner as a passive recipient." }, { "child": "constructivist_learning", "parent": "mental_model", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Constructivist learning presupposes mental model because active knowledge-construction by the learner produces and revises internal representations of the domain.", "reason": "Constructivist learning posits that learners actively construct knowledge through experience, reflection, and social interaction, building internal cognitive structures rather than receiving pre-formed information passively. The construction-and-revision activity requires that there be internal representations to construct: simplified, manipulable stand-ins for domain workings that support simulation and prediction. Mental model supplies that structural object. Without mental models as the target of construction, the assimilation-and-accommodation dynamic would have nothing to operate on and the bidirectional engagement between learner and world would have no internal substrate to revise." }, { "child": "constructivist_learning", "parent": "pedagogy", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Constructivism is the learner-centered pedagogical paradigm \u2014 a kind of deliberate structuring of the learner's encounter with content.", "reason": "Constructivism is the learner-centered pedagogical paradigm \u2014 a kind of deliberate structuring of the learner's encounter with content. Pedagogy supplies the genus: Deliberate other-directed structuring of a learner's encounter with content to cause durable change in their capability. Constructivist Learning preserves that general structure while adding its differentia: Build knowledge from experience. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "contact_response_decomposition": [ { "child": "contact_response_decomposition", "parent": "decomposition", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Contact-Response Decomposition typically presupposes Decomposition, whose structure must already obtain for the child mechanism to be meaningful or operational.", "reason": "Decomposition supplies the prerequisite condition: Breaking a whole into parts that can be analyzed independently and recombined to reconstitute the whole, making complexity tractable through divide-and-conquer. Contact-Response Decomposition operates against that background: Impact decomposes into how much contact occurs between a system and a driver times how strongly the system responds per unit of contact, two independently actionable terms. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "contagion": [ { "child": "contagion", "parent": "associative_property_transfer", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Epidemiological contagion is 'the warranted causal special case' \u2014 a property flowing along a link that genuinely is a causal channel.", "reason": "Epidemiological contagion is 'the warranted causal special case' \u2014 a property flowing along a link that genuinely is a causal channel. associative_property_transfer is the warrant-neutral parent covering causal, heuristic (halo), and fallacious (guilt-by-association) alike. Associative Property Transfer supplies the genus: A property flows along an associative link rather than along a causal or evidential one. Contagion preserves that general structure while adding its differentia: Spread of a state from element to element through contact. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "containerization": [ { "child": "containerization", "parent": "interface", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "'a standardized published interface is one of containerization's named ingredients'; containerization uses an interface but adds dependency-bundling, standardization of external form, and substrate-blind handling.", "reason": "'a standardized published interface is one of containerization's named ingredients'; containerization uses an interface but adds dependency-bundling, standardization of external form, and substrate-blind handling. It presupposes the interface as a component. Interface supplies the prerequisite condition: A bounded, rule-governed surface across which two systems exchange information or control while hiding their internals, letting each evolve independently behind a stable contract. Containerization operates against that background: Wrap a unit with its dependencies behind a standardized exterior so substrate-blind handlers can move it intact. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." }, { "child": "containerization", "parent": "information_hiding", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Containerization wraps units behind a standardized exterior so handlers are substrate-blind to contents, a specialized transport-oriented application of information hiding.", "reason": "Containerization wraps units behind a standardized exterior so handlers are substrate-blind to contents, a specialized transport-oriented application of information hiding. Information Hiding supplies the genus: Deliberately concealing internal facts behind a stable public surface to control dependencies. Containerization preserves that general structure while adding its differentia: Wrap a unit with its dependencies behind a standardized exterior so substrate-blind handlers can move it intact. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "containment": [ { "child": "containment", "parent": "constraint", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Containment is a kind of constraint: a maintained perimeter restricts the admissible reach of an entity, process, or hazard.", "reason": "Containment draws and maintains a boundary that prevents a contained entity, process, or hazard from spreading or interacting uncontrolled with its surroundings. The perimeter functions as a binding restriction on admissible configurations: any state in which the contained item has escaped is ruled out regardless of other merit. That is the defining structure of a Constraint, here specialized to spatial-or-relational isolation of a propagating agent, energy flow, or contagious condition." }, { "child": "containment", "parent": "boundary", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Containment presupposes boundary because holding something within a perimeter to prevent spread requires that perimeter as a first-class structural object.", "reason": "Containment is the bounded isolation of an entity, process, or hazard within a defined perimeter to prevent uncontrolled interaction with surroundings. The operation constitutively requires a boundary: a demarcation between contained and external with maintained integrity and controlled permeability. Boundary supplies the structural object \u2014 bounded entity, demarcation criterion, permeability \u2014 that containment then makes operative as a barrier to propagation. Without a boundary as first-class structure with maintained integrity, containment has no perimeter to defend and no inside-outside distinction to enforce." } ], "context_dependent_preference": [ { "child": "context_dependent_preference", "parent": "preference", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Context-Dependent Preference is Preference specialized to an ordering whose value relation is indexed by a comparison menu or evaluation procedure.", "reason": "Context-Dependent Preference is Preference specialized to an ordering whose value relation is indexed by a comparison menu or evaluation procedure. Both define an ordering among alternatives that can guide selection or choice. The child requires unchanged focal options, an independently manipulated context generator, and a reproducible change in their ordering." } ], "context_stripping": [ { "child": "context_stripping", "parent": "transformation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Context stripping is a transformation that preserves a focal signal while projecting away part of the surrounding state that helped determine its content.", "reason": "Context stripping maps an input consisting of a focal signal plus meaning-bearing surroundings into an output that preserves the focal signal while removing some of those surroundings. That is a rule-governed restructuring with an explicit invariant and an explicit alteration, so it is a strict specialization of Transformation." }, { "child": "context_stripping", "parent": "context", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Context stripping presupposes Context because the operation is defined by removing surrounding state that selects the content of a fixed focal signal.", "reason": "The operation cannot be identified from the focal signal alone. It requires surrounding state that changes or constrains what that signal carries, and then removes some of that state while leaving the focal token intact. Context supplies exactly the meaning-selecting relation that is being severed." } ], "contextual_mode_switching": [ { "child": "contextual_mode_switching", "parent": "adaptation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Contextual mode switching is a specific kind of adaptation where the agent shifts among pre-built behavioral repertoires in response to context cues.", "reason": "Contextual mode switching is a specialization of adaptation. The general pattern is a process by which a system changes its internal structure or behaviour in response to environmental change, preserving or improving fit. Mode switching instantiates this with the adaptation being movement among a maintained inventory of context-tuned modes (vocabulary, tone, procedure, tooling) triggered by contextual cues. The system maintains the modes as standing capacity rather than constructing each response from scratch, so the change-to-fit is realized as selection from a repertoire rather than incremental modification of a single default behaviour." }, { "child": "contextual_mode_switching", "parent": "state_and_state_transition", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Contextual mode switching presupposes state and state transition because switching between mode-bundles requires a discrete state space of available modes.", "reason": "Contextual mode switching organizes an agent's behavior as a repertoire of discrete modes, each a coherent bundle of vocabulary, tone, and procedure, with contextual cues triggering transitions between them. This is structurally a state-transition system: the modes are states, the cues are transition triggers, and the switching rule is the transition relation. Without an underlying commitment to discrete states with rule-governed transitions, the mode-bundles would not be separable nor the switches identifiable. Mode switching presupposes the state-machine architecture as its substrate." } ], "continuity": [ { "child": "continuity", "parent": "invariance", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Continuity presupposes invariance because the epsilon-delta condition is the preservation of nearness under the mapping.", "reason": "Continuity presupposes invariance because the no-sudden-jumps condition is exactly the claim that a specific feature -- nearness between input points -- is preserved under the application of the mapping. The preimage-of-open-is-open formulation makes this explicit: the topological structure of openness is the named feature, and continuous maps are the family of transformations that preserve it. Without invariance's joint commitment to what-is-preserved and under-which-operations, the continuity condition has no structural content; continuity is topological invariance under the map. Invariance supplies the prerequisite condition: Properties unchanged under transformation. Continuity operates against that background: Smooth change without jumps. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." }, { "child": "continuity", "parent": "neighborhood", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Continuity is a specialization of Neighborhood, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Neighborhood supplies the genus: The local-context window of elements close to a focal point under a proximity structure. Continuity preserves that general structure while adding its differentia: Smooth change without jumps. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "contract": [ { "child": "contract", "parent": "interface", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "'An interface that no authority enforces and whose violation carries no remedy is a contract's structural SKELETON without its binding force.' A contract = interface and normative obligation and breach criterion and remedy and accepted enforcement regime.", "reason": "'An interface that no authority enforces and whose violation carries no remedy is a contract's structural SKELETON without its binding force.' A contract = interface and normative obligation and breach criterion and remedy and accepted enforcement regime. It presupposes/enriches the interface. Interface supplies the prerequisite condition: A bounded, rule-governed surface across which two systems exchange information or control while hiding their internals, letting each evolve independently behind a stable contract. Contract operates against that background: A multi-party bundle of obligations, breach criteria, and remedies under an accepted enforcement regime. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "contraposition": [ { "child": "contraposition", "parent": "deductive_reasoning", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "'Deduction is the whole family of truth-preserving inference; contraposition is one specific equivalence-rewrite within it (paired with modus tollens).", "reason": "'Deduction is the whole family of truth-preserving inference; contraposition is one specific equivalence-rewrite within it (paired with modus tollens). It is an instance of deductive reasoning, not its scope.' A specialization of deductive_reasoning. Deductive Reasoning supplies the genus: General to specific conclusions. Contraposition preserves that general structure while adding its differentia: Run an implication backward: from the absence of the consequence, infer the absence of the cause. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "contrast": [ { "child": "contrast", "parent": "comparison", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Contrast presupposes comparison because emphasizing a difference requires the prior operation of placing items under a shared frame.", "reason": "Contrast presupposes comparison because foregrounding a difference between elements requires them first to be brought under a shared frame and aligned along some dimension where the difference can register. Comparison supplies the relational machinery \u2014 comparands, dimensions, alignment rule \u2014 that makes any two items commensurable enough to register as different. Contrast then specifies that the output relation is one of perceptually or cognitively emphasized difference rather than mere relation; without the prior comparative operation, there is no shared axis along which the heightened difference can be read." } ], "control_data_channel_confusion": [ { "child": "control_data_channel_confusion", "parent": "interface", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "An in-band-signalling FLAW of a contracted boundary where control and data share a substrate; presupposes an interface (the meeting point) whose control/data separation is marked by content not construction.", "reason": "An in-band-signalling FLAW of a contracted boundary where control and data share a substrate; presupposes an interface (the meeting point) whose control/data separation is marked by content not construction. Interface supplies the prerequisite condition: A bounded, rule-governed surface across which two systems exchange information or control while hiding their internals, letting each evolve independently behind a stable contract. Control / Data Channel Confusion operates against that background: A receiver interprets attacker-controlled data as authoritative instructions because the protocol separates control from data by content inspection rather than by structure. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." }, { "child": "control_data_channel_confusion", "parent": "untrusted_input_execution", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Control / Data Channel Confusion is a specialization of Untrusted Input Execution, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Untrusted Input Execution supplies the genus: Attacker-influenced input crosses a data-to-control (or authority) boundary and a correctly-operating intermediary executes it with the intermediary's own authority, so the attacker borrows the defender's privilege without ever violating the intermediary's rules. Control / Data Channel Confusion preserves that general structure while adding its differentia: A receiver interprets attacker-controlled data as authoritative instructions because the protocol separates control from data by content inspection rather than by structure. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "control_sample": [ { "child": "control_sample", "parent": "comparison", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "A Control Sample presupposes the comparison in which it serves as the deliberately matched comparator for the case of interest.", "reason": "A sample becomes a control only relative to a focal case, a defined contrast, and a shared measurement procedure. Remove that comparison and the same specimen is merely a sample, not a control. Comparison supplies the required relation; Control Sample adds matching, experimental role, and background-subtraction commitments, so the object-role is not itself a kind of the comparison operation." } ], "controllability": [ { "child": "controllability", "parent": "state_and_state_transition", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Controllability requires a state space and input-conditioned transition rule before reachability from an initial state to a target state can be evaluated.", "reason": "State transition supplies the modeled dynamics; Controllability adds admissible inputs, target regions, finite horizons, reachability, rank tests, and actuator placement. State and State Transition supplies the prerequisite condition: Captures system condition and evolution. Controllability operates against that background: Ability to steer system. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "controlled_reentry": [ { "child": "controlled_reentry", "parent": "controllability", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Controlled reentry presupposes enough intervention authority to advance, hold, reverse, or abort the staged return.", "reason": "A return is controlled only when the operator can steer progression through checkpoints and re-suspend it after a failure signal; without that reachable intervention set the process is merely observed reentry." }, { "child": "controlled_reentry", "parent": "monitoring", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Continuous state observation and threshold checking are constitutive parts of controlled reentry.", "reason": "The staged pathway advances or aborts in response to telemetry and checkpoint criteria, so monitoring is an internal component rather than an optional accompaniment. Monitoring supplies an internal constituent: Continuously observing a system's state to detect deviation from expected behavior and trigger a response, separating genuine signal from routine noise. Controlled Reentry requires that role within this mechanism: Re-establishing a suspended activity or state through staged, monitored steps with the capacity to abort, because returning to normal is a separate engineered process and not a simple reversal of the exit. Remove the parent-role and the child loses a required internal operation, even though the parent can exist outside the child. The child is therefore built from the parent rather than being a taxonomic kind of it." } ], "convection": [ { "child": "convection", "parent": "transformation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Convection is a kind of transformation: it maps an input distribution into a restructured output via the rule of buoyancy-driven bulk flow.", "reason": "Convection transports heat, mass, or momentum by the coherent motion of fluid driven by buoyancy from temperature or composition gradients, restructuring spatial distributions of those quantities into circulatory patterns. That fits the Transformation schema: input distribution mapped to output distribution under a rule, with certain properties preserved (mass, energy) and others altered (spatial profile). Convection specializes transformation by fixing the rule as buoyancy-driven bulk fluid motion organized into cells." }, { "child": "convection", "parent": "gradient", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Convection presupposes gradient because the buoyancy-driven fluid motion is initiated and sustained by density differences arising from gradients in temperature or composition.", "reason": "Convection is fluid transport driven by density differences that arise from spatial variation in temperature or composition \u2014 that is, from gradients of those scalar fields. Without gradient's machinery \u2014 the local rate and direction of steepest increase of a scalar field across space \u2014 there would be no density contrast to make lighter fluid parcels rise and heavier parcels sink, and no buoyancy-drag balance to organize the fluid into circulatory cells. The gradient prime supplies the spatial-variation structure that initiates and sustains convective motion." }, { "child": "convection", "parent": "flow", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Convection is a specialization of flow whose transport is carried by buoyancy-driven bulk motion of the fluid itself.", "reason": "Convection is a specialization of flow in which the transported quantity, typically heat or mass, is carried by coherent bulk-fluid displacement driven by density contrasts arising from temperature or composition gradients. It inherits the general flow commitment of directional transfer of a conserved quantity through a system with rates, conservation, and a driving gradient, and specializes by fixing the transport mechanism to self-organized buoyant circulation rather than diffusion, pressure-driven channel flow, or advection by an externally imposed velocity field." } ], "convergent_evolution": [ { "child": "convergent_evolution", "parent": "multi_path_convergence", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Convergent evolution is multi-path convergence specialized to causally independent lineages facing comparable pressure and independently reaching the same solution form.", "reason": "Every instance contains Multi-Path Convergence's distinct trajectories and common endpoint. It adds the exclusion of shared inheritance and transmission, comparable selection pressure, and the evidential inference from independent recurrence to solution fit." } ], "convexity": [ { "child": "convexity", "parent": "optimization", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Convexity presupposes Optimization, whose structure must already obtain for the child mechanism to be meaningful or operational.", "reason": "Optimization supplies the prerequisite condition: Finds best solution under constraints. Convexity operates against that background: Mixtures preserve membership and the average of values dominates the value of the average. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "convolution": [ { "child": "convolution", "parent": "function_mapping", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Convolution is 'the UNIQUE linear, translation-invariant' function mapping \u2014 one fixed kernel applied identically everywhere.", "reason": "Convolution is 'the UNIQUE linear, translation-invariant' function mapping \u2014 one fixed kernel applied identically everywhere. A sharply constrained specialization of function_mapping (an arbitrary input-output rule). Function (Mapping) supplies the genus: Relates inputs to outputs. Convolution preserves that general structure while adding its differentia: Each output is a sliding, weighted local mixture of an input produced by one fixed kernel. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "conways_law": [ { "child": "conways_law", "parent": "isomorphism", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Conway's law is isomorphism applied GENERATIVELY across the producer/artifact divide \u2014 a structure-preserving homomorphism from communication topology to artifact decomposition, plus a causal direction and interface-cost coupling.", "reason": "Conway's law is isomorphism applied GENERATIVELY across the producer/artifact divide \u2014 a structure-preserving homomorphism from communication topology to artifact decomposition, plus a causal direction and interface-cost coupling. A specialization of isomorphism. Isomorphism supplies the genus: Structure-preserving mapping. Conway's Law preserves that general structure while adding its differentia: Any artifact built by a collective acquires a structure homomorphic to the communication topology of the collective that built it. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "cooperation": [ { "child": "cooperation", "parent": "social_dilemma", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Cooperation presupposes social dilemma because the cooperation problem only exists where individual rationality conflicts with the collective optimum.", "reason": "Cooperation presupposes social dilemma because the tension cooperation names \u2014 costly contribution sustained against the pull of defection \u2014 is constituted by the prior structural pattern of a social dilemma: a setting where each agent's dominant strategy yields a collectively worse outcome than universal contribution would. Without that gap between individually rational and collectively optimal action, there is no cooperation problem to solve; agents would reach the good outcome unaided. Cooperation inherits the social dilemma's structural conflict and names the question of what devices \u2014 reciprocity, norms, institutions \u2014 stabilize contribution against the standing temptation to defect." } ], "cooperative_principle_gricean_maxims": [ { "child": "cooperative_principle_gricean_maxims", "parent": "social_norms", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "The Cooperative Principle and Gricean Maxims is the specific shape social norms take in conversational cooperation.", "reason": "The Cooperative Principle and its maxims govern conversational contributions through shared expectations \u2014 be informative, truthful, relevant, clear \u2014 that participants assume and against which deviations are noticed and exploited as implicature. That is the structure of Social Norms \u2014 group-shared behavioral expectations, enforced by mutual sanction, sustained by joint internalization and enforcement \u2014 particularized to the domain of talk exchange. Gricean maxims are the specific shape social norms take when the regulated behavior is communicative cooperation under conversational purpose." }, { "child": "cooperative_principle_gricean_maxims", "parent": "cooperation", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Cooperative principle and Gricean maxims presupposes cooperation because conversational implicature operates on the assumption participants are jointly working toward purpose.", "reason": "The Cooperative Principle holds that conversational participants make contributions as required by the accepted purpose of the talk exchange, specified by maxims of quantity, quality, relation, and manner. The entire framework presupposes that interlocutors are jointly contributing to a shared purpose despite individual temptations to deceive, mislead, or free-ride on others' clarity. Cooperation supplies the structural commitment: agents take individually costly actions sustaining a joint outcome where defection is tempting. Conversational maxims specialize cooperation to linguistic exchange, with informativeness and truthfulness as the costly contributions sustained against private temptation." }, { "child": "cooperative_principle_gricean_maxims", "parent": "pragmatics", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Cooperative Principle and Gricean Maxims is a specialization of Pragmatics, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Pragmatics supplies the genus: What a signal means in context is the joint product of its literal content and patterned contextual machinery, not just what the signal literally encodes. Cooperative Principle and Gricean Maxims preserves that general structure while adding its differentia: Cooperative communication. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "coordination": [ { "child": "coordination", "parent": "dependency", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Coordination presupposes dependency because alignment of independently controlled actors is only required when their actions are mutually contingent.", "reason": "Coordination presupposes dependency because the active alignment of independently controlled actors only becomes a problem when one actor's progress, output, or interpretation depends on another's. Without dependency's directed reliance \u2014 A cannot proceed unless a condition on B is met \u2014 there is nothing to synchronize: independent actors with no coupling can act in parallel without any coordination machinery. Dependency supplies the structural couplings that make coordination necessary; coordination then supplies the protocols, signals, and shared frames that resolve those couplings into coherent collective outcomes." }, { "child": "coordination", "parent": "task_interdependence", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Coordination presupposes task interdependence because the active alignment of actors is only required when their tasks are coupled through inputs, outputs, or shared resources.", "reason": "Coordination's whole rationale is to align actors whose tasks depend on one another \u2014 to manage the couplings through which one task's output is another's input, or both compete for shared resources. Without task interdependence's machinery of workflow coupling, the actors would be performing independent tasks with no need for active alignment, and the coordination infrastructure would have nothing to coordinate. Interdependence supplies the structural condition \u2014 coupling between tasks \u2014 that creates the requirement coordination addresses." }, { "child": "coordination", "parent": "concurrency", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Coordination presupposes concurrency because aligning independent actors into coherent collective outcome only arises when multiple processes proceed simultaneously.", "reason": "Coordination is the active alignment of independently controlled actors so their actions combine into a coherent collective outcome. The problem only arises where multiple loci of execution proceed in time-overlapping fashion \u2014 the structural situation that concurrency names. A single actor needs no coordination; coordination becomes necessary when separate processes run concurrently and their interleavings raise questions of ordering, contention, and consistency. Concurrency supplies the multi-process-simultaneity substrate; coordination is the alignment work that addresses the consequent ordering and synchronization problems." }, { "child": "coordination", "parent": "mobilization", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "The coordination layer that channels activated capacity \u2014 'one stage of the four'.", "reason": "The coordination layer that channels activated capacity \u2014 'one stage of the four'. After the organizational_management frame is stripped away, the retained structural roles are those of Mobilization: Latent capacity is activated, channeled into directed action, and then sustained or returned to rest. Coordination adds the local frame and commitments expressed in its identity: Aligning independently controlled actors so their separate actions combine into a coherent collective outcome despite distributed decision-making and incomplete shared information. The parent pattern remains recognizable without that vocabulary, while the child is the framed realization of it. That preservation test establishes decomposition rather than taxonomic subsumption." } ], "coordination_overhead_inversion": [ { "child": "coordination_overhead_inversion", "parent": "diseconomies_of_scale", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Stakes its identity on a precise difference from diseconomies of scale: ordinary diseconomies grow with the PRIMARY activity's scale, while this adds RECURSION \u2014 the scaffold generates its own meta-scaffold (governance-of-governance), a self-reinforcing growth term independent of the primary activity.", "reason": "Stakes its identity on a precise difference from diseconomies of scale: ordinary diseconomies grow with the PRIMARY activity's scale, while this adds RECURSION \u2014 the scaffold generates its own meta-scaffold (governance-of-governance), a self-reinforcing growth term independent of the primary activity. The recursive specialisation of rising-overhead-with-scale. Diseconomies of Scale supplies the genus: Rising per-unit cost once scale grows past a point. Coordination-Overhead Inversion preserves that general structure while adding its differentia: A support scaffold recursively reproduces its own coordination demand until the supporting layer consumes more capacity than the activity it was meant to support. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "coordination_problem_and_equilibrium_selection": [ { "child": "coordination_problem_and_equilibrium_selection", "parent": "path_dependence", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Coordination problems typically presuppose path dependence because focal-point and lock-in selection makes the chosen equilibrium history-dependent.", "reason": "A coordination problem arises when multiple stable equilibria exist and agents must align on one without the decision structure itself uniquely picking one. Which equilibrium gets selected typically depends on history \u2014 focal points inherited from prior interactions, lock-in from early adopters, accumulated convention. Path dependence supplies exactly this structural fact: outcomes are determined by the specific trajectory of choices, with early decisions constraining later ones. Coordination selection typically rides on this dynamic, though some coordination problems are resolved by salience alone without historical lock-in, so the presupposition is typical." }, { "child": "coordination_problem_and_equilibrium_selection", "parent": "equilibrium", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "The coordination problem presupposes equilibrium because its core difficulty is selecting among multiple stable equilibria that all satisfy the balance condition.", "reason": "The coordination problem arises precisely when more than one stable equilibrium exists and agents must align on a single one. Without equilibrium's machinery of balance conditions and stability \u2014 the structural framework by which a system has rest points at which opposing forces balance \u2014 there would be no set of alternatives to select among and no question of which stable state the system settles into. The equilibrium prime supplies the multi-rest-point structure that the coordination problem treats as the selection space." }, { "child": "coordination_problem_and_equilibrium_selection", "parent": "coordination", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "The coordination problem presupposes coordination because the selection-among-equilibria difficulty arises only within the active-alignment infrastructure of coordination.", "reason": "The coordination problem names the specific failure mode in which agents who wish to align on a joint outcome must choose among multiple equally-rational equilibria, which is intelligible only against the background of coordination's active-alignment infrastructure. Without coordination's machinery of shared protocols, synchronization, and joint action toward a goal none can achieve alone, there would be no joint outcome to align on and no selection problem to solve. Coordination supplies the goal-structure that makes equilibrium selection a problem at all." } ], "correlated_source_attribution_failure": [ { "child": "correlated_source_attribution_failure", "parent": "correlation", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Correlated-Source Attribution Failure presupposes Correlation, whose structure must already obtain for the child mechanism to be meaningful or operational.", "reason": "Correlation supplies the prerequisite condition: Systematic co-variation between variables, distinct from causation. Correlated-Source Attribution Failure operates against that background: When combined sources share underlying variation, joint inference stays strong while attribution to any individual source becomes unstable, sign-flipping, or arbitrary. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." }, { "child": "correlated_source_attribution_failure", "parent": "confounding", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Correlated-Source Attribution Failure is a specialization of Confounding, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Confounding supplies the genus: Hidden variable interference. Correlated-Source Attribution Failure preserves that general structure while adding its differentia: When combined sources share underlying variation, joint inference stays strong while attribution to any individual source becomes unstable, sign-flipping, or arbitrary. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "correspondence_principle": [ { "child": "correspondence_principle", "parent": "compatibility", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Correspondence Principle is a kind of compatibility: a new theory must reproduce the predictions of its predecessor in the latter's validated regime.", "reason": "The Correspondence Principle requires a new, more general theory to reproduce the predictions of the older theory it supersedes in the regime where the older theory was empirically validated, typically as a well-defined limit (h-bar to 0, c to infinity). That is the relational property of Compatibility: two systems coexist without contradiction across the regime where both apply. Correspondence specializes compatibility to successive scientific theories, with the older theory's empirical domain as the alignment region." }, { "child": "correspondence_principle", "parent": "versioning", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "The correspondence principle presupposes versioning because it constrains how a successor theory must reproduce the predecessor's predictions in their validated regime.", "reason": "The correspondence principle presupposes versioning because it treats theories as named successive states of a body of knowledge -- predecessor and successor -- where the successor must reproduce the predecessor's empirically validated predictions as a limit. Without versioning's explicit identification, retention, and difference-computation between artifact states, there is no formal way to specify which predictions the new theory must recover, in which regime the old theory was valid, or what the reduction (hbar to zero, c to infinity) computes. The principle is a consistency constraint on the version transition. Versioning supplies the prerequisite condition: Tracks incremental changes over time. Correspondence Principle operates against that background: New theories match old limits. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "cost_benefit_analysis": [ { "child": "cost_benefit_analysis", "parent": "value_commensuration", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Cost-benefit analysis is the specific shape value commensuration takes when the common metric is monetized and net present value is the aggregation rule.", "reason": "Cost-benefit analysis is the specific shape value commensuration takes when the common scale is monetary and the aggregation rule is net present value across all significant consequences. Value commensuration's general anatomy \u2014 translating heterogeneous values from different frameworks into a single comparable metric, with characteristic loss and contestation \u2014 is structurally particularized into willingness-to-pay valuations, monetized externalities, discounted future flows, and a single net-benefit verdict. The general translation-into-common-metric operation is preserved; the specific shape is its monetized, decision-analytic realization for policy and project evaluation." }, { "child": "cost_benefit_analysis", "parent": "decision", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Cost-benefit analysis presupposes decision because the framework's purpose is to support selecting one alternative over others under constraint.", "reason": "Cost-benefit analysis aggregates significant consequences of a candidate policy or project into a common monetary metric and uses the net present value as a basis for evaluation. The framework is constituted around the act of choosing \u2014 it exists to discriminate between alternatives and recommend one. Decision supplies the act of selecting one alternative from a set, committing future resources, and closing off other paths; CBA is the analytical machinery that informs and structures that selection, presupposing the decisional act as its purpose and addressee." }, { "child": "cost_benefit_analysis", "parent": "commensurability", "type": "composition", "flavor": "", "qualifier": "strict", "reason_short": "CBA is a decision procedure that presupposes and centrally uses commensurability (common monetary metric) as its core mechanism, not a kind of it.", "reason": "CBA is a decision procedure that presupposes and centrally uses commensurability (common monetary metric) as its core mechanism, not a kind of it. Commensurability supplies the prerequisite condition: Diverse values expressed in common metric enabling comparison. Cost\u2013Benefit Analysis operates against that background: Evaluate decisions. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "counterfactual_proximity_weighting": [ { "child": "counterfactual_proximity_weighting", "parent": "counterfactual_reasoning", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "The SIGNAL-GENERATION mechanism that weights a nearby counterfactual into a reward/loss signal by distance; it presupposes counterfactual_reasoning to CONSTRUCT the alternative, then folds it in by proximity.", "reason": "The SIGNAL-GENERATION mechanism that weights a nearby counterfactual into a reward/loss signal by distance; it presupposes counterfactual_reasoning to CONSTRUCT the alternative, then folds it in by proximity. 'reasoning constructs the alternative; proximity weighting weights it into a signal'. Counterfactual Reasoning supplies the prerequisite condition: Hypothetical alternatives. Counterfactual Proximity Weighting operates against that background: An internal signal is graded not by the outcome alone but by its distance to a nearby counterfactual outcome of different value, so near misses carry near-reward signals. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "counterfactual_subtraction": [ { "child": "counterfactual_subtraction", "parent": "counterfactuals", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "The ESTIMATOR that operationalises a counterfactual into a number: observed minus a constructed baseline standing in for the unobserved counterfactual.", "reason": "The ESTIMATOR that operationalises a counterfactual into a number: observed minus a constructed baseline standing in for the unobserved counterfactual. 'one operationalisation of the broader concept', sitting 'one level below causality'. Presupposes counterfactuals (the metaphysical target). Counterfactuals supplies the prerequisite condition: Alternate hypothetical scenarios. Counterfactual Subtraction operates against that background: An effect is estimated by subtracting a constructed baseline representing what would have obtained absent the intervention, so the inference rests on the baseline's credibility, not the arithmetic. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "counterfactuals": [ { "child": "counterfactuals", "parent": "causality", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Counterfactuals are a kind of causality: causal claims are evaluated by comparing the actual world with what would have happened had a cause differed.", "reason": "Counterfactual reasoning constructs claims of the form had A not occurred, B would not have occurred and uses them to identify causal structure, evaluate decisions, and assign responsibility. That is one of the four essential components of Causality itself: modal robustness \u2014 the counterfactual claim that fixing the cause would have fixed the effect under a fixed background. Counterfactuals are the specialization of causality that isolates and operationalizes the modal component as its primary inferential machinery." }, { "child": "counterfactuals", "parent": "modal_reasoning", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Counterfactual reasoning is a specialization of modal reasoning that evaluates would-have-been claims under contrary-to-fact antecedents.", "reason": "Counterfactual reasoning is a specialization of modal reasoning. Specifically, it deploys a modal operator (the counterfactual conditional) that quantifies over a structured space of alternatives -- nearest possible worlds, intervention regimes, or similarity-ordered scenarios -- to evaluate what would have followed under an antecedent contrary to actual fact. The truth of the counterfactual claim rests on the inner proposition holding across the relevant accessible alternatives, exactly the Kripke-style move modal reasoning names; counterfactuals are the subclass anchored to contrary-to-fact antecedents." } ], "counterresponse_offset": [ { "child": "counterresponse_offset", "parent": "coupling", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "A counterresponse offset requires the intervention's target variable to be coupled to a response channel that feeds back into the realized outcome.", "reason": "If the improvement cannot change incentives, exposure, activity, or some other response-bearing variable, no counterresponse can be induced and the fixed-volume gain survives intact. Coupling supplies the dependency; the prime adds intervention, induced adjustment, and offset accounting." } ], "covariance": [ { "child": "covariance", "parent": "expected_value", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Covariance contains expected-value operations that center each quantity and average their paired deviation products.", "reason": "Expected value is an internal constituent of covariance: the means used to center X and Y and the expectation of their centered product are applications of the same probability-weighted linear operator. Remove that operator and the covariance quantity is undefined." } ], "coverage_reachability": [ { "child": "coverage_reachability", "parent": "surjectivity", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Coverage / Reachability is a specialization of Surjectivity, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Surjectivity supplies the genus: A coverage-guaranteeing mapping in which every element of the target is hit by some input, leaving no gap in the codomain. Coverage / Reachability preserves that general structure while adding its differentia: A completeness claim in the surjective direction: every required target in a target set is reachable from at least one of the system's inputs, pathways, or mechanisms. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." }, { "child": "coverage_reachability", "parent": "completeness", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Coverage/reachability is explicitly the surjective-direction specialization of the general no-gaps completeness claim.", "reason": "Coverage/reachability is explicitly the surjective-direction specialization of the general no-gaps completeness claim. Completeness supplies the genus: No gaps in structure. Coverage / Reachability preserves that general structure while adding its differentia: A completeness claim in the surjective direction: every required target in a target set is reachable from at least one of the system's inputs, pathways, or mechanisms. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "creative_destruction": [ { "child": "creative_destruction", "parent": "transformation", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Creative destruction is the specific shape transformation takes in an economy, where innovation restructures the productive base by displacing the old.", "reason": "Creative destruction is the structurally-particularized form transformation takes in competitive capitalist economies: the input is an existing configuration of products, methods, and firms; the rule is innovation-driven competitive displacement; the output is a restructured economy in which resources have been reallocated from less to more productive uses. The transformation's invariants are aggregate welfare gain and the continuity of market activity; the degrees of freedom being reshaped are the particular firms, technologies, and occupational structures that get displaced." }, { "child": "creative_destruction", "parent": "allocation", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Creative destruction presupposes allocation because its reallocation of resources from less to more productive uses requires an underlying assignment of supply across uses.", "reason": "Creative destruction operates by reallocating capital, labor, and other productive resources from displaced firms and methods to ascendant ones, which presupposes the underlying machinery of assigning limited supply across competing uses. Without allocation as the structural substrate, there would be no assignment to revise: the displacement of incumbents and the rise of new entrants would have no resource-redistribution dimension. The allocation prime supplies the assignment structure on which the destructive-creative reshuffling acts." } ], "credible_commitment": [ { "child": "credible_commitment", "parent": "commitment", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Credible commitment is commitment made believable enough for another actor to rely on through observability and breach cost.", "reason": "Credible commitment retains the general commitment structure and adds public observability, believable breach cost, and sufficient strength to make compliance execution-time incentive-compatible for a relying actor." } ], "critical_juncture": [ { "child": "critical_juncture", "parent": "path_dependence", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "A critical juncture presupposes path dependence because its consequence-amplifying role only obtains when subsequent dynamics lock in the chosen path.", "reason": "A critical juncture presupposes path dependence because its high-stakes status depends entirely on what happens afterward: the moment is consequential only if subsequent increasing returns, network effects, or institutional inertia make reversal difficult. It inherits path dependence's commitment that current state is irreducible to prior state plus current shock \u2014 history is constitutive \u2014 particularized to the branching-point case where a brief window of sensitivity precedes long lock-in. Without path dependence's downstream amplification, the juncture would not be critical." }, { "child": "critical_juncture", "parent": "readiness_window", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Positions critical_period (the developmental child) and treats critical_juncture as a high-contingency moment; readiness_window is the substrate-general interval whose children include developmental critical periods.", "reason": "Positions critical_period (the developmental child) and treats critical_juncture as a high-contingency moment; readiness_window is the substrate-general interval whose children include developmental critical periods. Readiness Window supplies the genus: A receptive substrate enters a bounded opening-interior-closing interval during which a class of interventions can take hold. Critical Juncture preserves that general structure while adding its differentia: Moment where small variations produce divergent locked-in paths. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "critical_mass": [ { "child": "critical_mass", "parent": "tipping_points_or_phase_transitions", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Critical mass is a specialization of tipping point in which the control parameter is participation density and the threshold sits at a reproduction ratio of one.", "reason": "Critical mass specializes the tipping-point pattern by fixing the control parameter as quantity, density, or participation level of interacting elements and the threshold as the reproduction-ratio crossing of one. Where tipping points name the general structure of alternative stable states separated by a bifurcation driven by positive feedback, critical mass specifies the bifurcation as the self-sustaining-versus-decaying boundary at R=1 \u2014 below it activity decays geometrically, above it activity grows self-sustainingly. The reproduction-ratio framing is the particular shape the bifurcation takes in propagation processes." }, { "child": "critical_mass", "parent": "threshold", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Critical mass is a specialization of threshold whose specific input is a reproduction-ratio crossing one and whose response is self-sustaining propagation.", "reason": "Critical mass is a specialization of threshold in which the input variable is the effective reproduction ratio of a propagating process and the response is the qualitative shift from decay to self-sustained activity at R equals one. It inherits the general threshold commitment of a sharp dividing value separating a sub-response regime from a response regime, and specializes by fixing the input to a reproduction count and the output to extinction-versus-runaway. Below the threshold the chain dies; above it, propagation feeds itself." }, { "child": "critical_mass", "parent": "mobilization", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Reaching critical mass = the self-sustaining outcome of the sustainment stage \u2014 'one possible outcome'.", "reason": "Reaching critical mass = the self-sustaining outcome of the sustainment stage \u2014 'one possible outcome'. After the physics frame is stripped away, the retained structural roles are those of Mobilization: Latent capacity is activated, channeled into directed action, and then sustained or returned to rest. Critical Mass adds the local frame and commitments expressed in its identity: The minimum quantity needed to sustain a self-perpetuating process. The parent pattern remains recognizable without that vocabulary, while the child is the framed realization of it. That preservation test establishes decomposition rather than taxonomic subsumption." }, { "child": "critical_mass", "parent": "bloom_and_bust_cycle", "type": "decompose", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Critical Mass is the framed or domain-specific realization of Bloom And Bust Cycle; removing the local frame leaves the parent's structural relation intact.", "reason": "After the physics frame is stripped away, the retained structural roles are those of Bloom And Bust Cycle: Saturating growth collapses, and the collapse itself becomes a second, often larger, stressor. Critical Mass adds the local frame and commitments expressed in its identity: The minimum quantity needed to sustain a self-perpetuating process. The parent pattern remains recognizable without that vocabulary, while the child is the framed realization of it. That preservation test establishes decomposition rather than taxonomic subsumption." } ], "critical_period": [ { "child": "critical_period", "parent": "critical_juncture", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "A time-gated window of malleability for acquiring a configuration is a specific developmental/biological instance of the general sensitive-moment-with-locked-in-divergent-paths structure.", "reason": "A time-gated window of malleability for acquiring a configuration is a specific developmental/biological instance of the general sensitive-moment-with-locked-in-divergent-paths structure. Critical Juncture supplies the genus: Moment where small variations produce divergent locked-in paths. Critical Period preserves that general structure while adding its differentia: A time-gated window of elevated malleability during which a configuration can be acquired, after which the same inputs are far harder or impossible to take on. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "criticality": [ { "child": "criticality", "parent": "nonlinearity", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Criticality presupposes nonlinearity because divergent susceptibilities and scale-free fluctuations require failure of superposition.", "reason": "Criticality is the state of a system at a phase boundary where response to perturbation becomes unbounded across scales, with diverging correlation length, susceptibility, and power-law event-size distributions. This rests on nonlinearity: the structural failure of superposition in which scaling inputs does not scale outputs proportionally and combined inputs produce new phenomena including thresholds, bistability, and pattern formation. The qualitative regime change at a critical point, where the system transitions between ordered and disordered phases, is impossible in a strictly linear system where any perturbation simply decays additively." } ], "cromwells_rule": [ { "child": "cromwells_rule", "parent": "bayesian_updating", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Cromwell's rule is a specific boundary CONSTRAINT on bayesian_updating: because zero is absorbing for multiplication, contingent priors must stay off 0 and 1 or the update is inert.", "reason": "Cromwell's rule is a specific boundary CONSTRAINT on bayesian_updating: because zero is absorbing for multiplication, contingent priors must stay off 0 and 1 or the update is inert. A corollary of the algebra, a specialization of the general updating mechanism." } ], "cross_boundary_subsidy": [ { "child": "cross_boundary_subsidy", "parent": "dependency", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Cross-boundary subsidy is a directional resource flow creating donor-coupling reliance, matching dependency's asymmetric-reliance definition.", "reason": "Cross-boundary subsidy is a directional resource flow creating donor-coupling reliance, matching dependency's asymmetric-reliance definition. Dependency supplies the genus: Directed relation in which one element relies on another being present, prior, compatible, or supplied, with a specifiable failure mode if the condition is unmet. Cross-Boundary Subsidy preserves that general structure while adding its differentia: An asymmetric, sustained flow of a sustaining resource across a boundary holds a recipient above its endogenous capacity, creating donor-coupling vulnerability mistaken for autonomy. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "cross_cutting_relationship": [ { "child": "cross_cutting_relationship", "parent": "geometric_chronology", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Cross-cutting relationship is geometric chronology specialized to the intersection rule that an interrupting or overprinting feature is younger than the feature it cuts.", "reason": "It inherits inference from preserved geometry to a relative temporal order and adds the cross-cutting configuration: one trace interrupts, displaces, or overprints another. Geometric chronology is broader because it also includes superposition, inclusion, and other geometry-to-time rules." } ], "cross_dimensional_leakage": [ { "child": "cross_dimensional_leakage", "parent": "correlation", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "A specific generative story for WHY an observed cross-output correlation is inflated above the true cross-source signal: a shared channel loads onto multiple outputs (cov(y_i,y_j) = cov(t_i,t_j) and lambda_i*lambda_j*var(c)).", "reason": "A specific generative story for WHY an observed cross-output correlation is inflated above the true cross-source signal: a shared channel loads onto multiple outputs (cov(y_i,y_j) = cov(t_i,t_j) + lambda_i*lambda_j*var(c)). A diagnosis built atop correlation, presupposing it." } ], "cross_impact_analysis": [ { "child": "cross_impact_analysis", "parent": "network", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Cross-impact analysis is the specific shape network takes when nodes are future events or factors and edges are pairwise influence relations.", "reason": "Cross-impact analysis is the specific shape network takes when the entities are future events, trends, or factors within a bounded set and the connections are pairwise influence relations \u2014 how the occurrence or strengthening of one factor raises, lowers, or leaves unchanged the probability of another. It is a structurally-particularized instance of studying entities through their connection pattern, with the added commitments that connections are typically encoded in a cross-impact matrix and that the analytical payoff is aggregate trajectory adjustment accounting for all pairwise interactions, surfacing systemic effects single-factor analysis misses." }, { "child": "cross_impact_analysis", "parent": "local_to_global_aggregation", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Cross-Impact Analysis is typically a specialization of Local-to-Global Aggregation, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Local-to-Global Aggregation supplies the genus: Locally checkable properties promote to a global verdict under an explicit aggregation discipline. Cross-Impact Analysis preserves that general structure while adding its differentia: Interacting trends. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "cross_level_inference": [ { "child": "cross_level_inference", "parent": "hierarchy", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Cross-Level Inference presupposes Hierarchy because a claim can change levels only where distinguishable source and target levels are organized in relation to one another.", "reason": "The operation requires at least two distinguishable levels, a source-level claim, and a target-level claim. Hierarchy supplies that ordered level structure without itself licensing any inference between the levels." } ], "crossover_interaction": [ { "child": "crossover_interaction", "parent": "synergy_and_antagonism", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Crossover Interaction is the sign-reversing species of interaction effect in which one factor's conditional effect is positive at one level of a second factor and negative at another.", "reason": "Synergy and Antagonism supplies the general deviation from a no-interaction baseline: the joint response cannot be recovered from context-free component effects. Crossover Interaction specializes that family to the qualitative case where the conditional effect crosses zero and reverses direction across levels of the modifying condition." } ], "crowding_out": [ { "child": "crowding_out", "parent": "scarcity", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Crowding out requires a FINITE shared substrate (bounded capacity) two activities depend on \u2014 it presupposes scarcity of that substrate, but is 'sharper than mere competition for scarce resources': the new activity's success must run THROUGH the shared substrate (a nameable channel).", "reason": "Crowding out requires a FINITE shared substrate (bounded capacity) two activities depend on \u2014 it presupposes scarcity of that substrate, but is 'sharper than mere competition for scarce resources': the new activity's success must run THROUGH the shared substrate (a nameable channel). Presupposes scarcity; explicitly not a child of competition. Scarcity supplies the prerequisite condition: A finite resource is insufficient to satisfy all competing wants. Crowding Out operates against that background: Introducing or expanding one activity inside a finite shared substrate displaces an existing activity that depended on that same substrate. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "cue_outcome_decoupling": [ { "child": "cue_outcome_decoupling", "parent": "proxy_target_fidelity", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Cue Outcome Decoupling is a specialization of Proxy\u2013Target Fidelity, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Proxy\u2013Target Fidelity supplies the genus: How faithfully an observable proxy tracks the unobservable target it stands in for \u2014 the degree to which acting on, optimizing, or inferring from the proxy is acting on the target itself. Cue Outcome Decoupling preserves that general structure while adding its differentia: A cue that once reliably tracked an outcome has its coupling broken, while the cue-following behavior persists and grows more harmful the better it tracks the now-decoupled cue. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "culminating_point": [ { "child": "culminating_point", "parent": "diminishing_returns", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Culmination is the regime PAST where diminishing returns stops applying \u2014 diminishing_returns governs the falling-but-positive arm UP TO the peak, culmination is the sign-FLIP beyond it.", "reason": "Culmination is the regime PAST where diminishing returns stops applying \u2014 diminishing_returns governs the falling-but-positive arm UP TO the peak, culmination is the sign-FLIP beyond it. It presupposes the diminishing-returns curve and names where its marginal crosses zero. Distinct kind (sign-flip vs slope-flatten), adjacent on one curve." } ], "cultural_diffusion": [ { "child": "cultural_diffusion", "parent": "contagion", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Cultural diffusion is a kind of contagion in which innovations and practices spread through networks of contact and adoption.", "reason": "Cultural diffusion is a specialization of contagion: innovations, beliefs, and practices spread from adopter to connected non-adopter through contact, communication, and influence, with each newly adopting agent becoming a fresh transmission source. It inherits contagion's structural commitments \u2014 contact-mediated transmission, reproduction in each new host, threshold dynamics governed by transmission rate and network topology \u2014 particularized to the cultural-innovation case where what propagates is a practice or idea and the S-curve adoption pattern is the visible signature." } ], "cultural_friction": [ { "child": "cultural_friction", "parent": "compatibility", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Cultural friction presupposes compatibility because the resistance encountered by an imported artifact is the misalignment between its norms and the host culture's.", "reason": "Cultural friction presupposes compatibility because the resistance, adaptation demands, and rejection that arise when a practice or artifact is imported are exactly compatibility's failure mode at the level of norms, worldviews, and social structures. Without compatibility's framing of coexistence-and-interaction as a between-entity relational property, friction has no reference: it names the degree to which the imported and host systems fail to align on shared assumptions. Acculturation strategies map onto how the two systems negotiate toward (or away from) compatibility." } ], "cultural_hegemony": [ { "child": "cultural_hegemony", "parent": "legitimacy", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Cultural hegemony presupposes legitimacy because it works by securing voluntary consent \u2014 making dominance appear rightful rather than coerced.", "reason": "Cultural hegemony presupposes legitimacy because its distinctive mechanism is the production of consent: dominant groups maintain position not chiefly through coercion but by establishing their worldview as common sense, so the existing order appears natural and rightful. That mechanism only works inside legitimacy's prior structure of voluntary compliance based on recognition of rightness. Hegemony inherits legitimacy's general apparatus of authority-treated-as-rightful and specializes it by identifying the cultural-institutional means \u2014 education, media, religion, language \u2014 through which that recognition is manufactured, often in ways that disadvantage those who accept the framing." }, { "child": "cultural_hegemony", "parent": "social_norms", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Cultural hegemony presupposes social norms because it works by installing dominant framings as the taken-for-granted normative expectations of a society.", "reason": "Cultural hegemony presupposes social norms because its mechanism is the conversion of one group's worldview into the shared normative expectations of the broader society \u2014 common sense, the taken-for-granted, what everyone knows is appropriate. That conversion requires the prior structure of social norms: distributed expectations sustained by internalization and sanction, applying to everyone similarly situated. Hegemony inherits this norm-architecture and adds the further commitment that the content of the norms tracks the interests of dominant groups, so that compliance with them \u2014 felt as ordinary social membership \u2014 also reproduces a particular order of inequality." } ], "curiosity": [ { "child": "curiosity", "parent": "attention", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Curiosity is a specific kind of attention, biasing selective allocation toward information that closes a salient knowledge gap.", "reason": "Curiosity is a specialization of attention. The general pattern is the selective allocation of a limited cognitive resource to a subset of available information, gating what gets processed deeply. Curiosity instantiates this with the allocation criterion being a perceived information gap: the reasoner orients selective attention toward stimuli that promise to close the gap between current and possible knowledge, with the gap-resolution itself intrinsically rewarding. Berlyne and Loewenstein's information-gap framing makes curiosity the attentional bias whose targeting rule is gap salience, particularly within the Goldilocks zone of optimal challenge." }, { "child": "curiosity", "parent": "uncertainty", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Curiosity presupposes uncertainty because the perceived knowledge gap that motivates information-seeking is itself an uncertainty state.", "reason": "Curiosity presupposes uncertainty because the information-gap that drives exploration is a specific uncertainty condition: the reasoner perceives an unknown quantity (the missing knowledge), evidence about its possible resolution, and a felt difference between current and possible states of fuller knowing. Without uncertainty's apparatus for distinguishing known from unknown and characterizing the unknown, there is no gap to feel or close. Curiosity is the motivational response to epistemic uncertainty operating in the Goldilocks zone where closure feels both possible and worth the effort." } ], "curse_of_dimensionality": [ { "child": "curse_of_dimensionality", "parent": "dimension", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "The curse arises only as the number of relevant dimensions grows; dimensional structure is constitutive of the pathology.", "reason": "The curse arises only as the number of relevant dimensions grows; dimensional structure is constitutive of the pathology. Dimension supplies the prerequisite condition: Degrees of freedom in a system. Curse Of Dimensionality operates against that background: Volume, sparsity, and distance intuitions degrade so fast with added dimensions that low-dimensional methods break down qualitatively, not just quantitatively. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "custody_transfer": [ { "child": "custody_transfer", "parent": "state_and_state_transition", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Custody Transfer is a state transition specialized to a holder-indexed responsibility state changed by one release-and-bind triggering act.", "reason": "Before the triggering act the outgoing holder bears the defined duty bundle; after it the incoming holder does. The transferred object and duty scope are conserved while the holder-valued state changes discretely, so every genuine Custody Transfer instantiates State and State Transition." } ], "cut": [ { "child": "cut", "parent": "network", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "A cut is a vertex-bipartition-plus-crossing-edges object DEFINED ON a network/graph; it presupposes a relational network.", "reason": "A cut is a vertex-bipartition-plus-crossing-edges object DEFINED ON a network/graph; it presupposes a relational network. 'a relational network... the bipartition... the crossing-edge set.'. Network supplies the prerequisite condition: Models interactions between components. Cut operates against that background: A partition of a network's vertices and the crossing edges, converting global connectivity into a local edge-set. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "cycle": [ { "child": "cycle", "parent": "network", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Cycle presupposes Network, whose structure must already obtain for the child mechanism to be meaningful or operational.", "reason": "Network supplies the prerequisite condition: Models interactions between components. Cycle operates against that background: A closed path in a network that returns to its origin, opening return, foreclosing ordering, and creating a loop invariant. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "damping": [ { "child": "damping", "parent": "dissipation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Damping is Dissipation specialized to removing energy from an excited dynamical degree of freedom and reducing its response.", "reason": "Every Damping process irreversibly transfers organized energy out of the tracked dynamical variables into heat, radiation, frictional modes, or another sink. That is Dissipation. Damping adds a moving, displaced, or fluctuating degree of freedom, a damping coefficient, and underdamped, critical, or overdamped response regimes that describe how the excitation decays." }, { "child": "damping", "parent": "oscillation", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Damping commonly acts on Oscillation, but non-oscillatory return and aperiodic fluctuation are valid damping regimes.", "reason": "The canonical damping problem begins with an oscillatory mode whose amplitude envelope shrinks as energy is removed, making Oscillation the usual dynamical substrate. It is not universal: at or above critical damping the actual response returns monotonically, and some damping acts on broadband or aperiodic fluctuations. Oscillation is therefore a typical prerequisite rather than an identity requirement." } ], "data_control_plane_breach": [ { "child": "data_control_plane_breach", "parent": "interface", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "A failure mode at the contracted meeting point where content arriving through an interface is re-interpreted from data into control; presupposes an interface (the stage on which the breach occurs).", "reason": "A failure mode at the contracted meeting point where content arriving through an interface is re-interpreted from data into control; presupposes an interface (the stage on which the breach occurs). Interface supplies the prerequisite condition: A bounded, rule-governed surface across which two systems exchange information or control while hiding their internals, letting each evolve independently behind a stable contract. Data-Control Plane Breach operates against that background: Untrusted content crosses into the data channel un-inertised and an interpreter, operating correctly by its own rules, executes it as control, wielding the defender's authority for the attacker. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." }, { "child": "data_control_plane_breach", "parent": "untrusted_input_execution", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Data-Control Plane Breach is a specialization of Untrusted Input Execution, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Untrusted Input Execution supplies the genus: Attacker-influenced input crosses a data-to-control (or authority) boundary and a correctly-operating intermediary executes it with the intermediary's own authority, so the attacker borrows the defender's privilege without ever violating the intermediary's rules. Data-Control Plane Breach preserves that general structure while adding its differentia: Untrusted content crosses into the data channel un-inertised and an interpreter, operating correctly by its own rules, executes it as control, wielding the defender's authority for the attacker. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "data_drift": [ { "child": "data_drift", "parent": "temporal_decay_and_degradation", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Data Drift typically presupposes Temporal Decay and Degradation, whose structure must already obtain for the child mechanism to be meaningful or operational.", "reason": "Temporal Decay and Degradation supplies the prerequisite condition: System properties or capabilities systematically diminish over time. Data Drift operates against that background: A static learned mapping silently loses accuracy as the deployment distribution drifts away from the distribution it was calibrated on. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." }, { "child": "data_drift", "parent": "calibrated_rule_vs_moving_world", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Data_drift is the complementary CHANNEL where P(x) moves (the input distribution shifts).", "reason": "Data_drift is the complementary CHANNEL where P(x) moves (the input distribution shifts). One channel of the same gap. Calibrated Rule versus Moving World supplies the genus: A rule, model, or policy fitted to a past distribution of the world degrades as the world it was calibrated on drifts away from that distribution. Data Drift preserves that general structure while adding its differentia: A static learned mapping silently loses accuracy as the deployment distribution drifts away from the distribution it was calibrated on. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." }, { "child": "data_drift", "parent": "training_serving_skew", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Data drift is training-serving skew caused by temporal movement in the deployment distribution relative to the learned reference environment.", "reason": "Training-serving skew is the general mismatch between preparation and deployment environments. Data drift adds a fixed learned mapping, a reference distribution, and temporal covariate, concept, or label movement that opens the mismatch after deployment." } ], "data_integrity": [ { "child": "data_integrity", "parent": "verification", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Data Integrity is a kind of verification: checksums, signatures, and audits confirm conformance to the data's intended specification.", "reason": "Data integrity is preserved by mechanisms \u2014 checksums, error-correcting codes, digital signatures, validation rules, audit, provenance \u2014 that check stored or transmitted data against the criteria it must satisfy and produce a verdict of accept or repair. That is the defining structure of Verification: a procedure that checks conformance to specification and yields evidence-backed verdicts. Data integrity specializes verification to the case where the specified object is data and the specification covers accuracy, consistency, and authorized state." }, { "child": "data_integrity", "parent": "invariance", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Data integrity presupposes invariance because preserving accuracy across the data lifecycle is the preservation of intended content under storage, transmission, and processing operations.", "reason": "Data integrity presupposes invariance because the integrity guarantee names a feature -- the data's intended content and internal rules -- that must remain unchanged under the family of transformations data undergoes (writes, reads, transmission, archival, processing). Checksums, signatures, and constraints are the mechanisms that verify invariance under each operation. Without invariance's joint commitment to preserved feature and preserving operations, there is no formal sense in which data is or is not corrupt; integrity is engineered invariance with detection and recovery. Invariance supplies the prerequisite condition: Properties unchanged under transformation. Data Integrity operates against that background: Accuracy and consistency preserved. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "data_leakage": [ { "child": "data_leakage", "parent": "validation", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Data leakage presupposes a validation boundary separating information legitimately available at decision time from information reserved for calibration or evaluation.", "reason": "The failure is defined by an invalid performance claim: a model, forecast, examination, audit, or blinded assessment is scored as though its decision were made without information that crossed into fitting or calibration. Validation supplies the held-apart reference and the claim of out-of-sample competence; without that separation, the same information flow is ordinary input rather than leakage." }, { "child": "data_leakage", "parent": "past_state_contamination", "type": "subsumption", "flavor": "", "qualifier": "conditional", "reason_short": "Time leakage is the model-evaluation species in which future or held-out information enters fitting, feature construction, calibration, or validation.", "reason": "Time leakage is the model-evaluation species in which future or held-out information enters fitting, feature construction, calibration, or validation. Information outside the artifact's declared as-of boundary enters its construction and makes the reported historical or prospective evaluation invalid. The artifact is a statistical or computational model pipeline and the output is contaminated performance, calibration, or deployment evidence. Applies to temporal, look-ahead, and future-derived leakage. Train-test contamination among contemporaneous records can be Data Leakage without a later-to-earlier information channel." } ], "data_structure": [ { "child": "data_structure", "parent": "trade_offs", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "A data_structure is the arrangement-for-use trade \u2014 privileging some operations cheap at the structural cost of penalizing others (the no-neutral-arrangement invariant).", "reason": "A data_structure is the arrangement-for-use trade \u2014 privileging some operations cheap at the structural cost of penalizing others (the no-neutral-arrangement invariant). It presupposes a trade_offs frame; the operation-profile is the trade made concrete. Trade-offs supplies the prerequisite condition: Balancing competing priorities. Data Structure operates against that background: An arrangement of information that makes some operations cheap at the structural cost of others. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "deadlock": [ { "child": "deadlock", "parent": "cycle", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Deadlock's essential commitment is a circular waiting dependency, which is precisely a closed loop returning to origin in the dependency graph, the structure cycle names.", "reason": "Deadlock's essential commitment is a circular waiting dependency, which is precisely a closed loop returning to origin in the dependency graph, the structure cycle names. Cycle supplies the genus: A closed path in a network that returns to its origin, opening return, foreclosing ordering, and creating a loop invariant. Deadlock preserves that general structure while adding its differentia: Mutual blocking processes. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "deadweight_loss": [ { "child": "deadweight_loss", "parent": "price_elasticity", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Deadweight loss typically presupposes price elasticity because the magnitude of welfare lost from a price distortion depends on demand and supply responsiveness.", "reason": "Deadweight loss is the reduction in total surplus that results when a market distortion prevents mutually beneficial transactions, measured as the welfare triangle. The size of that triangle is determined by how responsive quantity is to price \u2014 the more elastic supply and demand, the larger the deadweight loss for a given tax or price wedge. Price elasticity supplies the responsiveness parameter that calibrates the magnitude. Deadweight loss as a quantified welfare claim typically presupposes elasticity, though qualitative existence-of-distortion arguments can be made without it, hence typical." }, { "child": "deadweight_loss", "parent": "pareto_efficiency", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Deadweight loss presupposes Pareto efficiency because the welfare benchmark from which the loss is measured is the no-Pareto-improvement-available allocation.", "reason": "Deadweight loss is the reduction in total surplus relative to a benchmark welfare allocation that distortions prevent the market from reaching. The benchmark is the competitive-equilibrium allocation with no market failures \u2014 precisely the Pareto-efficient frontier where no change can make anyone better off without making someone worse off. Pareto efficiency supplies exactly that benchmark: the set of allocations from which no Pareto improvement is available. Deadweight loss is meaningful only against this benchmark, presupposing Pareto efficiency as the reference point from which welfare losses are measured." }, { "child": "deadweight_loss", "parent": "allocation", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Deadweight loss is the specific shape allocation takes when distortions prevent mutually beneficial transactions, leaving surplus uncaptured by any party.", "reason": "Deadweight loss is the inefficiency particularization of allocation: it names the structural shortfall between the realized assignment of resources and the welfare benchmark of competitive equilibrium. Where allocation names the bare assignment of limited supply to competing claims generally, deadweight loss specifies the case where the assignment forecloses mutually beneficial trades, producing a loss in which no party captures the foregone surplus \u2014 a particular form of misallocation distinguished from transfers, which merely shift surplus between parties." } ], "deception_blowback": [ { "child": "deception_blowback", "parent": "reflexivity_self_reference", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Blowback is a self-referential return path: a signal the deceiver authored re-enters the deceiver's own decision loop through a shared channel \u2014 a specialized self-reference pathology where the system poisons itself.", "reason": "Blowback is a self-referential return path: a signal the deceiver authored re-enters the deceiver's own decision loop through a shared channel \u2014 a specialized self-reference pathology where the system poisons itself. is-a a reflexivity/self-reference failure." }, { "child": "deception_blowback", "parent": "signaling", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Presupposes an injected (misleading) signal into a shared channel; built on a signaling act whose return is the defect.", "reason": "Presupposes an injected (misleading) signal into a shared channel; built on a signaling act whose return is the defect. Signaling supplies the prerequisite condition: Revealing hidden information. Deception Blowback operates against that background: A misleading signal injected into a shared channel to deceive an adversary returns through an unintended path to confuse the deceiver's own decision loop, allies, downstream systems, or future selves, at a cost the original calculation never scored. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "decidability_computability": [ { "child": "decidability_computability", "parent": "computability", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "'Logical decidability is one instance of the computability partition' \u2014 decidability concerns a formal system's mechanical settleability; computability is the broader medium-neutral boundary.", "reason": "'Logical decidability is one instance of the computability partition' \u2014 decidability concerns a formal system's mechanical settleability; computability is the broader medium-neutral boundary. computability is the genus. decidability_computability is the survivor. Computability supplies the genus: The in-principle boundary between problems an effective procedure can solve and those none can. Decidability Computability preserves that general structure while adding its differentia: A class of yes/no questions admits a finite procedure that always terminates with the correct answer. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "decision": [ { "child": "decision", "parent": "constraint", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Decision presupposes constraint because selecting one alternative from a set requires that the admissible set be defined by binding restrictions.", "reason": "Decision is the act of selecting one alternative from a set under conditions of constraint, uncertainty, or trade-off. The set itself is constituted by constraint \u2014 a condition that restricts admissible configurations to those satisfying it, producing the feasible set from which selection draws. Without constraint there is no bounded choice set, no closure of options, and no meaningful selection. Constraint supplies the binding restriction that defines what counts as an admissible alternative; decision then ranges over that set and commits to one element, so it presupposes constraint as the substrate of its choice space." }, { "child": "decision", "parent": "reversibility_and_irreversibility", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "A decision presupposes reversibility and irreversibility because every selection carries an implicit commitment to a position on the reversal-cost dimension.", "reason": "A decision is the moment when deliberation collapses into commitment, and the structure of that commitment is defined by where it sits on the reversibility dimension: whether the chosen path can be unwound, at what cost, and within what window. Without the prior distinction between reversible and irreversible action, a decision would have no commitment dimension \u2014 no closing-off of alternatives, no resource locking, no preserved or sacrificed flexibility. The reversibility property is what gives decisions their consequential weight." }, { "child": "decision", "parent": "stage_gate_process", "type": "decompose", "flavor": "part_of", "qualifier": "strict", "reason_short": "Each gate is a `decision` (resolve advance/terminate/revert); the prime is the structured sequence of gate decisions.", "reason": "Each gate is a `decision` (resolve advance/terminate/revert); the prime is the structured sequence of gate decisions. a decision is the 'building block' of which stage-gate is a sequence. After the cognitive_science frame is stripped away, the retained structural roles are those of Stage Gate Process: Partition a long commitment into evidence-gated stages with escalating commitment and a funnel of kills. Decision adds the local frame and commitments expressed in its identity: Committing to one alternative from a set under uncertainty and trade-off, collapsing open deliberation into a chosen path and foreclosing the others. The parent pattern remains recognizable without that vocabulary, while the child is the framed realization of it. That preservation test establishes decomposition rather than taxonomic subsumption." } ], "decision_cycle_subordination": [ { "child": "decision_cycle_subordination", "parent": "competition", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "'the broad prime under which this one is a sharp special case' \u2014 the specific competitive failure where the binding mechanism is TEMPO (one decision cycle forced to react to another's).", "reason": "'the broad prime under which this one is a sharp special case' \u2014 the specific competitive failure where the binding mechanism is TEMPO (one decision cycle forced to react to another's). Competition supplies the genus: Rivalrous pursuit of a scarce prize where one party's gain is another's loss. Decision Cycle Subordination preserves that general structure while adding its differentia: A slower actor's decision cycle becomes forced to respond to a faster actor's tempo, and responding faster deepens the subordination rather than escaping it. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." }, { "child": "decision_cycle_subordination", "parent": "decision", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "A relational PATHOLOGY between two actors' decision cycles \u2014 it presupposes decision-making and adds the cross-actor tempo dynamic decision alone does not contain.", "reason": "A relational PATHOLOGY between two actors' decision cycles \u2014 it presupposes decision-making and adds the cross-actor tempo dynamic decision alone does not contain. Decision supplies the prerequisite condition: Committing to one alternative from a set under uncertainty and trade-off, collapsing open deliberation into a chosen path and foreclosing the others. Decision Cycle Subordination operates against that background: A slower actor's decision cycle becomes forced to respond to a faster actor's tempo, and responding faster deepens the subordination rather than escaping it. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "decision_fatigue": [ { "child": "decision_fatigue", "parent": "decision", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Decision Fatigue presupposes Decision: the phenomenon is a degradation pattern across a sequence of choice acts.", "reason": "Decision fatigue is the empirical claim that the quality of choices in a sequence declines as the sequence continues, with later acts showing more default-reliance, impulsivity, and error. The phenomenon is defined over a sequence of Decision events: there must be repeated acts of selecting one alternative from a set before any degradation pattern can be observed or named. Decision fatigue therefore presupposes Decision as the unit it counts and the act whose quality degrades." }, { "child": "decision_fatigue", "parent": "bias", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Decision Fatigue is a kind of bias: depletion produces a systematic, direction-consistent drift toward defaults and impulsive choices.", "reason": "Decision fatigue produces a systematic \u2014 not random \u2014 shift in choice patterns as a sequence progresses: later choices reliably tilt toward defaults, status-quo options, and impulsive selections. The displacement is in a consistent direction and persists across the sequence rather than averaging out across additional acts. That is the defining structure of Bias: a persistent offset of process output from the unbiased target. Decision fatigue specializes bias to sequential decision-making under deliberative-resource depletion." }, { "child": "decision_fatigue", "parent": "cognitive_resource_depletion", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Decision fatigue is a specialization of cognitive resource depletion in which the depleting capacity is sustained deliberative choice.", "reason": "Decision fatigue is a specialization of cognitive resource depletion in which the consumed capacity is specifically that for effortful deliberative choice. It inherits the general depletion pattern of time-dependent performance decay under sustained use, reversible by rest, and distinguishes itself by tying the consumption to extended sequences of decisions and by registering its signature in choice-quality markers: more defaults, more impulsivity, more status-quo bias, more errors late in the sequence than early. The substrate is the same depleting resource; the specialization fixes its expenditure to decision-making." } ], "deep_time": [ { "child": "deep_time", "parent": "time", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Deep time presupposes time because its content is the cognitive frame adopted for timescales of millions to billions of years.", "reason": "Deep time presupposes time because its content is a re-framing of the temporal dimension at scales vastly beyond biographical or historical horizons \u2014 geological, evolutionary, cosmological. It inherits time's structural commitment to ordered succession with measurable duration and irreversible direction, particularized to the very-long-timescale regime where processes invisible on human timescales become dominant and human intuition systematically underestimates duration. Deep time is time read at log-scale." } ], "defamiliarization": [ { "child": "defamiliarization", "parent": "habituation", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Defamiliarization presupposes a habituated, stimulus-specific loss of orienting response that an estranging re-presentation can interrupt.", "reason": "The familiar object's repeated inconsequential presentation has already reduced deliberate attention even though the perceiver remains capable of responding. Without that habituated automatism there is nothing for estrangement to break and no recovery of attention that distinguishes the technique from merely presenting something novel." } ], "defeat_in_detail": [ { "child": "defeat_in_detail", "parent": "competition", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Defeat in detail is a specific mechanism within competition \u2014 a globally weaker party beats a globally stronger but DISTRIBUTED one via local superiority and sequential engagement (concentration latency as the binding variable).", "reason": "Defeat in detail is a specific mechanism within competition \u2014 a globally weaker party beats a globally stronger but DISTRIBUTED one via local superiority and sequential engagement (concentration latency as the binding variable). One way to win a competition, not competition itself. it is 'one way to win a competition, not competition itself.'. Competition supplies the genus: Rivalrous pursuit of a scarce prize where one party's gain is another's loss. Defeat In Detail preserves that general structure while adding its differentia: A globally weaker attacker beats a globally stronger but distributed adversary by achieving local superiority and engaging the parts sequentially before they can combine. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "defect": [ { "child": "defect", "parent": "propagation", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Defect requires a localized deviation's consequence to spread through the regular structure's coupling channels and alter a macroscopic property.", "reason": "A deviation that remains causally inert or wholly local does not satisfy the prime's disproportionate-consequence identity. Propagation supplies the source, medium, pathway, speed, attenuation, and reach structure; Defect adds regularity, localization, stress concentration, bulk-versus-defect diagnosis, and engineering leverage." } ], "defense_in_depth": [ { "child": "defense_in_depth", "parent": "redundancy", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Defense in depth specializes redundancy: it layers barriers FOR failure ABSORPTION UNDER ATTACK, with INDEPENDENCE OF failure MODES load-bearing and an optimizing adversary seeking the correlated breach.", "reason": "Defense in depth specializes redundancy: it layers barriers FOR failure ABSORPTION UNDER ATTACK, with INDEPENDENCE OF failure MODES load-bearing and an optimizing adversary seeking the correlated breach. Plain redundancy duplicates for reliability against RANDOM failure. 'defense in depth specifically denotes layering for failure absorption under attack' \u2014 the adversarial specialization of stacked-multiples. Redundancy supplies the genus: Duplicate critical components. Defense In Depth preserves that general structure while adding its differentia: Stacking multiple independent protective layers between threat and asset so that only a correlated breach across all layers produces total loss. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "degrees_of_freedom": [ { "child": "degrees_of_freedom", "parent": "dimension", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Degrees of freedom is effective dimension specialized to the count of independent parameters remaining after constraints are imposed.", "reason": "Dimension counts independent coordinates needed to specify a configuration. Degrees of Freedom inherits that invariant and fixes how it is obtained: start from candidate parameters and subtract binding constraints, yielding the effective dimension of admissible variation." }, { "child": "degrees_of_freedom", "parent": "decomposition", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Degrees of freedom presupposes decomposition because the count of independent parameters is read off the system's decomposition into independent coordinates after constraints.", "reason": "Degrees of freedom quantifies the number of independent parameters required to specify a system's complete state, computed as unconstrained parameters minus constraints. This presupposes decomposition: breaking a whole into constituent parts whose independent analysis and recombination reconstitute it. The state is decomposed into a set of independent coordinates (mechanical generalized coordinates, statistical sample components, mechanism joints), each contributing one dimension to state space; constraints reduce the effective count. Without decomposition's structure-preserving partition into independent pieces, there is no notion of independent parameters to count." }, { "child": "degrees_of_freedom", "parent": "constraint", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Degrees of freedom presupposes constraint because counting independent parameters only becomes meaningful once binding restrictions on configurations are specified.", "reason": "Degrees of freedom counts the independent parameters needed to specify a system's state after constraints are imposed \u2014 formally, unconstrained parameters minus constraints. The count is meaningful only against a specified set of binding restrictions that prune the feasible set: holonomic constraints in mechanics, statistical constraints after estimation, kinematic constraints in mechanism design. Without constraints as a first-class structural object defining the admissible subset, the dimensionality reduction that degrees of freedom measures would have nothing to subtract from and no operational content." } ], "deixis": [ { "child": "deixis", "parent": "pragmatics", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Deixis is a specialization of Pragmatics, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Pragmatics supplies the genus: What a signal means in context is the joint product of its literal content and patterned contextual machinery, not just what the signal literally encodes. Deixis preserves that general structure while adding its differentia: Context-dependent meaning. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "delegation_of_authority": [ { "child": "delegation_of_authority", "parent": "authority", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Delegation of authority presupposes authority because there must be a legitimate decision-making power before any of it can be transferred to subordinates.", "reason": "Delegation is the structured transfer of a right to decide from a principal to an agent within specified limits, with the principal retaining ultimate responsibility. The transfer can only occur if such a right exists in the first place \u2014 a recognized, legitimate power to make binding decisions. Authority supplies precisely that: the socially recognized capacity to create obligations, vested in a role rather than in raw capability. Without an underlying authority to allocate, there is nothing for delegation to assign or for accountability mechanisms to track back to." } ], "delphi_method": [ { "child": "delphi_method", "parent": "iteration", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "The Delphi Method is Iteration specialized to anonymous expert elicitation, with each round's feedback becoming input to the next.", "reason": "The Delphi Method repeatedly elicits expert judgments, summarizes responses and rationales, returns controlled anonymous feedback, and uses that output as input to the next round until a stopping criterion is met. Removing the expert-panel, anonymity, judgment-elicitation, and foresight frame leaves Iteration's portable structure: repeated steps, carried state, output-to-input updating, progress assessment, and a termination rule." }, { "child": "delphi_method", "parent": "aggregation", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "The Delphi Method is the specific shape aggregation takes when distributed expert judgment is collapsed into a consensus through structured, anonymized iterative rounds.", "reason": "The Delphi Method is the particularization of aggregation to the setting of distributed expert opinion: many individual judgments are collapsed into a unified summary that retains the consensus signal while suppressing personal-influence and dominance distortions. Where aggregation names the deliberate loss of granular detail to retain chosen features generally, Delphi specifies that the feature retained is the convergent expert estimate while the detail suppressed is identity-linked bias, anchoring, and groupthink artifacts that contaminate unstructured pooling." } ], "demand": [ { "child": "demand", "parent": "preference", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Demand is 'desire made cost-responsive and quantified into a curve' \u2014 preference is the unconditioned ranking (the input), demand is the schedule preference generates against a budget.", "reason": "Demand is 'desire made cost-responsive and quantified into a curve' \u2014 preference is the unconditioned ranking (the input), demand is the schedule preference generates against a budget. It presupposes preference. Preference supplies the prerequisite condition: Agent's ordering over a choice set on some evaluative dimension. Demand operates against that background: A schedule relating quantity sought to generalized cost, with slope, elasticity, and substitution structure. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "denormalization": [ { "child": "denormalization", "parent": "trade_offs", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Denormalization presupposes Trade-offs, whose structure must already obtain for the child mechanism to be meaningful or operational.", "reason": "Trade-offs supplies the prerequisite condition: Balancing competing priorities. Denormalization operates against that background: Deliberately re-introduce controlled redundancy against a canonical form, trading a synchronization burden for access-side wins. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "dense_set": [ { "child": "dense_set", "parent": "set_and_membership", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Density is a relation OF a subset IN a host under a closeness notion (closure-equals-host); it is a specialized property within the set-and-membership apparatus \u2014 a set whose closure fills another.", "reason": "Density is a relation OF a subset IN a host under a closeness notion (closure-equals-host); it is a specialized property within the set-and-membership apparatus \u2014 a set whose closure fills another. Set and Membership supplies the genus: Groups and categorizes elements. Dense Set preserves that general structure while adding its differentia: A smaller set reaches arbitrarily close to every point of a larger one. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "dependency_distribution_concentration": [ { "child": "dependency_distribution_concentration", "parent": "dependency", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "How a system's dependency WEIGHT is distributed across providers; it presupposes a dependency structure and characterizes the shape of that reliance (a graph-weight property).", "reason": "How a system's dependency WEIGHT is distributed across providers; it presupposes a dependency structure and characterizes the shape of that reliance (a graph-weight property). Dependency supplies the prerequisite condition: Directed relation in which one element relies on another being present, prior, compatible, or supplied, with a specifiable failure mode if the condition is unmet. Dependency Distribution Concentration operates against that background: How a system's dependency weight is distributed across providers \u2014 concentrated or spread \u2014 is a structural property that bounds its fragility independent of its own defenses. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "derivative_amplification": [ { "child": "derivative_amplification", "parent": "propagation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Derivative Amplification is a specialization of Propagation, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Propagation supplies the genus: The systematic spreading of a signal, effect, or state from a source through a medium or network, where the medium's structure governs how fast it moves, how it attenuates, and which paths it follows. Derivative Amplification preserves that general structure while adding its differentia: In a serial chain where each upstream stage responds to the rate of change of its downstream neighbour, variation amplifies geometrically with chain length. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "design_for_implementation": [ { "child": "design_for_implementation", "parent": "trade_offs", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Design for implementation presupposes trade-offs because constraining design to producibility necessarily worsens some functional dimensions to improve others.", "reason": "Design for implementation systematically constrains design decisions to fit the realities of production, assembly, operation, and end-of-life processes \u2014 meaning the design cannot pursue ideal functional performance alone. The discipline operates by accepting compromise on one valued dimension (e.g., maximum performance, minimum part count, ideal geometry) to improve another (manufacturability, maintainability, supply-chain robustness). This is exactly the trade-off structure: improving one dimension within a feasible set requires worsening another. Without recognition that valued dimensions are multidimensionally coupled, the entire discipline collapses into single-objective optimization." }, { "child": "design_for_implementation", "parent": "constraint", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Design for implementation presupposes constraint because the discipline is precisely the inclusion of production and operational limits as binding restrictions on design choices.", "reason": "Design for implementation is the systematic practice of treating manufacturing capabilities, supply-chain limits, assembly sequences, and operational costs as binding restrictions on the admissible set of design configurations. Without constraint's machinery of treating a binding restriction as a first-class structural object, there would be no way to convert downstream realization limits into upstream design rejection rules: a configuration violating production feasibility would be no different from a configuration meeting it. The parent prime supplies the binding-restriction structure that this discipline applies to implementation context." } ], "design_for_lifecycle_adaptability": [ { "child": "design_for_lifecycle_adaptability", "parent": "modularity", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Design for lifecycle adaptability typically presupposes modularity because the future changes it accommodates are absorbed at module boundaries.", "reason": "Design for lifecycle adaptability deliberately structures systems so they can be modified, upgraded, or repurposed across operational life without excessive cost. The practical mechanism is typically modular structure: changes are absorbed by replacing or reconfiguring discrete modules without rippling through the whole. Modularity supplies the decomposition into independently revisable components with stable interfaces. Lifecycle adaptability rides on this organization to keep modification cost bounded, though some adaptability strategies use redundancy or parameterization without strict modularity, so the dependence is typical rather than strict." }, { "child": "design_for_lifecycle_adaptability", "parent": "adaptation", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Design for lifecycle adaptability is the specific shape adaptation takes when adaptability mechanisms are deliberately built into a system at design time.", "reason": "Design for lifecycle adaptability is the engineered, anticipatory particularization of adaptation: rather than a system changing in response to sustained environmental change after the fact, the designer pre-embeds modular interfaces, redundancy, excess capacity, and reconfiguration paths so that future modification is supported. Where adaptation names the modification of a system to fit new conditions generally, the design-for-adaptability variant fixes the timing \u2014 the adaptive capacity is engineered in upfront, before the conditions that will exercise it are known." } ], "design_patterns": [ { "child": "design_patterns", "parent": "abstraction", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Design patterns is the specific shape abstraction takes when recurring solution structures are named and extracted for reuse across instances.", "reason": "Abstraction is the purpose-relative retention of structure that keeps what is load-bearing for a use across many concrete instances. Design patterns is the particular shape this move takes in design and architecture: recurring problem-solution shapes are extracted from many concrete instances, named, and codified so the abstracted structure can be reused in new situations. It is a structurally-particularized instance of abstraction whose specific projection retains the generalizable problem-solution structure and discards the particulars of any one application." } ], "design_prototyping": [ { "child": "design_prototyping", "parent": "approximation", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Design prototyping is the specific shape approximation takes when a tractable physical or interactive surrogate stands in for the eventual full product.", "reason": "Approximation is the deliberate substitution of a tractable surrogate for an intractable target, with a controlled and named error the use case can tolerate. Design prototyping is the particular shape this move takes in engineering and design: the eventual full product is the intractable target, the prototype is the simpler tangible surrogate, and the bounded fidelity gap is what the learning purpose can absorb. It is a structurally-particularized instance of substitution-under-controlled-error whose specific machinery is materialized partial embodiment for the sake of feasibility and form learning." }, { "child": "design_prototyping", "parent": "iteration", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Design prototyping typically presupposes iteration because the prototype's purpose is to feed learning into successive rounds of design refinement.", "reason": "Design prototyping creates partial, testable versions of a design to learn about feasibility, form, and function before full commitment. The prototype's value is realized through iteration: each round produces evidence that feeds the next design cycle, with state carried between rounds and progress measured across them. Iteration supplies the repeated-application-with-state-carryover structure that prototyping rides on. Some single-shot prototypes serve as one-time confidence checks without iterative cycles, so the dependence is typical, though the canonical use case is iterative refinement." } ], "designed_out_misuse": [ { "child": "designed_out_misuse", "parent": "affordance", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "The deliberate ASYMMETRIC editing of an affordance set so the misuse path is costly while the legitimate path stays free; affordance is the raw material, this is the design move performed ON affordances.", "reason": "The deliberate ASYMMETRIC editing of an affordance set so the misuse path is costly while the legitimate path stays free; affordance is the raw material, this is the design move performed ON affordances. 'affordance is the material; this is the design move'. Affordance supplies the prerequisite condition: An action possibility offered by the fit between an agent and its environment. Designed-Out Misuse operates against that background: Affordances and defaults are arranged so the misuse path is costly or impossible while the legitimate path stays easy, preventing harm before enforcement has to act. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "desire_path": [ { "child": "desire_path", "parent": "revealed_preference", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Removing the route-design frame leaves inference of latent preference from a durable trace of costly observed choices rather than stated reports.", "reason": "Desire paths add a prescribed route, an inscribing substrate, repeated traversal, and a redesign response to the portable revealed-preference inversion from behavior to what users value or need." } ], "determinism": [ { "child": "determinism", "parent": "causality", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Determinism presupposes causality because its claim is precisely that the present state plus laws fix a unique successor via the productive cause-effect connection.", "reason": "Determinism presupposes causality because its content \u2014 that state plus laws fix exactly one successor \u2014 operates on the cause-effect relation: laws are the productive connection from prior state (cause) to next state (effect), and modal robustness is the counterfactual invariance of the law itself. It inherits causality's four-part structure and particularizes it to the case where the law is single-valued rather than probabilistic. Without causality's productive connection, the deterministic trajectory has nothing to specify." } ], "deterrence": [ { "child": "deterrence", "parent": "coercion", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Deterrence is coercion in the RESTRAINT-FORCING direction (costs conditional on a proscribed act).", "reason": "Deterrence is coercion in the RESTRAINT-FORCING direction (costs conditional on a proscribed act). Explicit genus-to-species. Coercion supplies the genus: Shaping another agent's choice by manipulating the costs and threats attached to their options, so the agent itself 'chooses' the coercer's preferred action \u2014 the common parent of forcing an action (compellence) and forcing restraint (deterrence). Deterrence preserves that general structure while adding its differentia: Preventing an action not by blocking it but by arranging consequences so the target's own cost-benefit calculation makes the action unattractive. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "develops_from_relation": [ { "child": "develops_from_relation", "parent": "relation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Develops_from is a relation but a highly-specified one \u2014 one continuant through directed, qualitatively-distinct, rule-governed stages \u2014 adding the four commitments (continuant identity, directed ordering, qualitative change, generative rule) the bare relation lacks.", "reason": "Develops_from is a relation but a highly-specified one \u2014 one continuant through directed, qualitatively-distinct, rule-governed stages \u2014 adding the four commitments (continuant identity, directed ordering, qualitative change, generative rule) the bare relation lacks. A typed directed identity-preserving edge as against an unlabeled link. Relation supplies the genus: Describes associations or dependencies. Develops-From Relation preserves that general structure while adding its differentia: A later entity came to be by stage-wise transformation of a continuing predecessor, the same continuant passing through directed, qualitatively distinct stages under a generative rule. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "diagnostically_inert_signal": [ { "child": "diagnostically_inert_signal", "parent": "signaling", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "A diagnostically inert signal is signaling specialized to a message that detects an event while omitting actionable diagnostic content.", "reason": "A diagnostically inert signal is signaling specialized to a message that detects an event while omitting actionable diagnostic content. Signaling supplies the genus: Revealing hidden information. Diagnostically Inert Signal preserves that general structure while adding its differentia: A signal that announces a failure but carries none of the content needed to act on it, splitting detection-completeness from recovery-completeness. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "diagonal_impossibility": [ { "child": "diagonal_impossibility", "parent": "reflexivity_self_reference", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Self-reference is the PRECONDITION; the diagonal flip is what extracts the impossibility.", "reason": "Self-reference is the PRECONDITION; the diagonal flip is what extracts the impossibility. It presupposes a self-modeling system that can name its own analyzers, then engineers a flip object. Reflexivity (Self-Reference) supplies the prerequisite condition: Self-referential systems. Diagonal Impossibility operates against that background: In a self-modeling system, a putative total analyzer is refuted by constructing an object engineered to make the analyzer's verdict on it contradict the property it decides. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "dialectic": [ { "child": "dialectic", "parent": "interpretation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Dialectic is a kind of interpretation: structured exchange between positions recovers meaning that no single vantage can reach.", "reason": "Dialectic uses structured question-answer-clarification across multiple positions to expose assumptions, pressure claims, and converge on understandings unreachable from a single vantage point. The end product is a constrained reading of the matter under examination, answerable to the exchange's evidence and the framework that scopes available answers. That is the activity of Interpretation \u2014 recovering meaning from a representational substrate under a framework that makes some readings available and others not. Dialectic specializes interpretation to multi-voice procedural inquiry." }, { "child": "dialectic", "parent": "inquiry_based_learning", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Dialectic presupposes inquiry-based learning because its elenchic question-answer-clarification cycle is the inquiry stance applied through structured dialogue.", "reason": "Dialectic presupposes inquiry-based learning because the multi-interlocutor exchange depends on the stance that understanding arises by formulating questions, testing claims against evidence and counter-position, and revising in light of what the exchange surfaces. Without inquiry's commitment to investigation-driven knowing -- problematic situation, evidence-gathering, explanation-construction, revision -- the elenchus collapses to mere debate. Dialectic specializes the inquiry stance by routing the investigation through structured dialogue between competing positions rather than a solo investigator's confrontation with a phenomenon." } ], "differential_decay": [ { "child": "differential_decay", "parent": "signal_decay_and_fadeout", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Differential_decay is the child that enriches generic decay: two COUPLED signals fade at DIFFERENT rates, so the survivor carries a meaning the pair never asserted (often a sign flip) \u2014 a CONTENT transformation, where signal_decay_and_fadeout is a MAGNITUDE reduction.", "reason": "Differential_decay is the child that enriches generic decay: two COUPLED signals fade at DIFFERENT rates, so the survivor carries a meaning the pair never asserted (often a sign flip) \u2014 a CONTENT transformation, where signal_decay_and_fadeout is a MAGNITUDE reduction. generic decay reduces magnitude, differential decay reshapes content. Signal Decay and Fadeout supplies the genus: Signals, influence, or effects systematically weaken over time or space. Differential Decay preserves that general structure while adding its differentia: Two coupled signals decay at different rates, so the surviving component carries forward a meaning the original pair never intended \u2014 often with a sign flip. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "differentiated_instruction": [ { "child": "differentiated_instruction", "parent": "adaptation", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Differentiated instruction is the specific shape adaptation takes when teaching tailors content, process, and product to learner variation.", "reason": "Differentiated instruction is the structurally-particularized form adaptation takes in the pedagogical case: the system (the classroom and teacher's practice) modifies internal structure (content, process, product, environment) in response to sustained variation in learner readiness, interests, and profiles, preserving effective instruction across the distribution. It inherits adaptation's commitment to internal modification that improves fit to changed conditions, particularized to the case where the changing conditions are within-classroom learner diversity rather than external environment." }, { "child": "differentiated_instruction", "parent": "pedagogy", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Differentiated instruction is a specific pedagogy that tailors content, process, product, and environment to individual learner profiles within one classroom.", "reason": "Differentiated instruction is a specialization of pedagogy whose distinctive move is calibrating the instructional encounter to the readiness, interests, and learning profiles of individual learners rather than delivering a uniform program. It inherits pedagogy's general commitment that an instructional agent deliberately structures another agent's engagement with content to cause durable capability change, and adds the operating principle that the structuring must vary across learners within a shared class because uniform delivery predictably underserves both ends of the readiness distribution and fails to leverage classroom diversity." } ], "diffusion": [ { "child": "diffusion", "parent": "propagation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Diffusion is a specialization of propagation in which the spreading mechanism is the aggregate of random or gradient-driven movements of microscopic constituents.", "reason": "Diffusion specializes propagation by fixing the transmission mechanism as the aggregate stochastic or gradient-driven movement of many microscopic constituents, with no central directing agent. Where propagation names the systematic spreading of a signal or effect through a medium or network generally, diffusion specifies that the spread arises from microscopic randomness producing macroscopic flux down concentration gradients, governed quantitatively by Fick's law \u2014 a particular shape propagation takes when the medium is a stochastic substrate and the influence moves via collective random-walk dynamics." }, { "child": "diffusion", "parent": "flow", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Diffusion is a specialization of flow in which net transport arises from microscopic stochastic motion down a concentration gradient.", "reason": "Diffusion is a specialization of flow in which the transport mechanism is the aggregate of microscopic random walks rather than coherent bulk motion, and the driving gradient is in concentration of the transported quantity itself. It inherits the general flow commitment of directional transfer of a conserved quantity from source to sink along a gradient, and specializes by fixing the mechanism to stochastic redistribution that yields Fick's-law proportionality between flux and gradient, with no central agent directing the movement." }, { "child": "diffusion", "parent": "gradient", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Diffusion presupposes gradient because the net flux it describes is driven by, and proportional to, the gradient of the diffusing quantity.", "reason": "Diffusion presupposes gradient because its constitutive law, Fick's, ties flux to the negative of the concentration gradient: there is no net diffusion in the absence of a gradient, and the gradient supplies both direction (down-slope) and magnitude (proportional to steepness) of macroscopic transport. Gradient supplies the general apparatus of pointwise direction-of-steepest-change in a scalar field; diffusion translates that local field-structure into a quantitative rule for net transport via the diffusion coefficient. Without a gradient, microscopic random motion produces no macroscopic flux." } ], "dimensional_analysis": [ { "child": "dimensional_analysis", "parent": "constraint", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Dimensional analysis presupposes constraint because dimensional homogeneity is a binding restriction on which equations among physical quantities can be admissible.", "reason": "Dimensional analysis requires every physical equation to be dimensionally homogeneous: every additive term and both sides of any equality must share identical dimensional signatures. This presupposes constraint: a condition restricting admissible configurations to those satisfying it, with the feasible set as a first-class object. Dimensional homogeneity is a binding restriction on the space of candidate equations: any expression violating it is not admissible regardless of other merit. The Buckingham pi theorem then quantifies how this binding constraint reduces the number of free parameters, exactly the constraint-reduces-feasible-set move." }, { "child": "dimensional_analysis", "parent": "invariance", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Dimensional analysis presupposes invariance because dimensional homogeneity requires that physical laws hold unchanged under unit-system changes.", "reason": "Dimensional analysis presupposes invariance because dimensional homogeneity -- the requirement that both sides of a physical equation share the same dimensional signature -- is exactly the claim that the equation's truth is preserved under the named family of unit-system transformations. The Buckingham pi theorem then exploits this invariance: the dimensionless groups are the invariants of the unit-change group, and the count (n minus k) is the dimension of the invariant subspace. Without invariance's joint specification of preserved feature and preserving operations, dimensional reasoning has no formal warrant." } ], "dimensionality_reduction": [ { "child": "dimensionality_reduction", "parent": "approximation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Dimensionality Reduction is a kind of approximation: a low-dimensional surrogate stands in for high-dimensional data with controlled loss.", "reason": "Dimensionality reduction maps high-dimensional data into a lower-dimensional representation chosen to preserve the structural features that matter for downstream tasks \u2014 variance, neighborhoods, predictive information \u2014 while discarding redundant or noisy dimensions. The low-dimensional representation is a tractable surrogate for the intractable original, with an explicit error measure tied to the downstream criterion. That is the defining shape of Approximation, here specialized to data representation where the surrogate is a lower-dimensional projection or embedding." }, { "child": "dimensionality_reduction", "parent": "compression", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Dimensionality reduction is a specialization of compression in which redundancy in a high-dimensional representation is removed by projecting onto a lower-dimensional latent structure.", "reason": "Dimensionality reduction is a specialization of compression in which the redundancy being exploited is dimensional: high-dimensional data lies on or near a low-dimensional manifold, and a transformation projects it onto that lower-dimensional representation while preserving variance, distances, or predictive information. It inherits the general compression commitment that redundant structure can be eliminated without losing what matters and that the choice between lossless and lossy reduction is governed by which features must be preserved. The specialization fixes the redundancy to dimensional correlations rather than symbol-level statistics." } ], "diminishing_incremental_gains": [ { "child": "diminishing_incremental_gains", "parent": "trade_offs", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Diminishing Incremental Gains is a kind of trade-off: each new unit of input buys less output, raising the relative cost of further improvement.", "reason": "Diminishing incremental gains says successive units of an input produce smaller increments of output once a threshold is passed, so the marginal cost of each next unit of benefit rises along the concave curve. Continuing to improve on the output dimension therefore requires giving up more on the input side \u2014 time, money, effort \u2014 than for any prior unit. That is the structure of a Trade-off, here driven by concavity in the input-output relationship rather than fixed-frontier opposition between two outputs." }, { "child": "diminishing_incremental_gains", "parent": "nonlinearity", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Diminishing incremental gains presupposes nonlinearity because concave saturation of returns is one of nonlinearity's signature shapes.", "reason": "Diminishing incremental gains presupposes nonlinearity because its structural claim, that each successive unit of input produces less output than the one before, is precisely a statement of concavity: a nonlinear input-output relation in which scaling does not preserve proportionality. Nonlinearity supplies the general space of relationships in which superposition fails and qualitative features like thresholds and saturation become possible; diminishing gains picks out the concave-saturating subfamily of that space as a domain-general heuristic across learning, utility, exercise, and effort." } ], "diminishing_returns": [ { "child": "diminishing_returns", "parent": "nonlinearity", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Diminishing returns is the specific shape nonlinearity takes when a production function with a fixed factor exhibits eventually-negative second derivative in the variable input.", "reason": "Diminishing returns is the structurally-particularized instance of nonlinearity in a production-economic setting: a production function with at least one fixed factor exhibits an eventually-negative second derivative in the variable input, so marginal product declines past a threshold. It carries forward nonlinearity's general commitment that scaling does not preserve proportionality and that concavity and saturation are structural features, and gives this shape the specific economic content of an empirically robust law about marginal, average, and total product under input fixity." }, { "child": "diminishing_returns", "parent": "diminishing_incremental_gains", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "The law of diminishing returns is a specialization of diminishing incremental gains restricted to production with at least one fixed input.", "reason": "The law of diminishing returns is a specialization of diminishing incremental gains restricted to the technological setting of a production process with at least one fixed factor, where the marginal product of a variable input eventually declines. It inherits the general concave input-output pattern that each successive unit yields a smaller increment, and specializes by fixing the domain to production economics, the cause to the fixed-factor constraint, and the variables to marginal, average, and total products. The broader heuristic of diminishing gains covers learning curves, utility, and effort; the law isolates the production-function instance with formal microeconomic predictions." } ], "directed_acyclic_graph": [ { "child": "directed_acyclic_graph", "parent": "network", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "A DAG is a specific KIND of network/graph \u2014 directed edges plus a global no-return (acyclicity) constraint.", "reason": "A DAG is a specific KIND of network/graph \u2014 directed edges plus a global no-return (acyclicity) constraint. A specialization of the general network with the added direction + acyclicity invariants." } ], "discounting_present_value": [ { "child": "discounting_present_value", "parent": "time_value_of_money", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Discounting is the specific shape time value of money takes as the quantitative technique for converting future cash flows into present-value equivalents.", "reason": "Discounting is the operational particularization of time value of money: it provides the formula and procedure (C/(1+r)^t or C\u00b7exp(-rt)) for converting future cash flows into present-equivalent amounts using a discount rate that encodes time preference, opportunity cost, and risk adjustment. Where time value of money names the foundational principle that a unit of currency today is worth more than the same unit later, discounting fixes the quantitative apparatus \u2014 the rate, the compounding scheme, the present-value computation \u2014 that operationalizes the principle for decision analysis." }, { "child": "discounting_present_value", "parent": "time_preference_discounting_future", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Discounting is the specific shape time preference takes when its psychological weighting is operationalized as a discount-rate formula converting future cash flows to present value.", "reason": "Discounting is the structurally-particularized instance of time preference in finance and economic analysis: the psychological weighting of present over future is turned into an explicit discount rate r and a formula C divided by one plus r to the t (or continuous exponential) that converts a future cash flow into its present-value equivalent. It carries forward time preference's general commitment that delayed outcomes count for less than immediate ones, and gives this idea its specific quantitative shape in NPV, IRR, and discounted-cash-flow analysis." }, { "child": "discounting_present_value", "parent": "commensurability", "type": "composition", "flavor": "", "qualifier": "strict", "reason_short": "Discounting is a technique that achieves commensurability across time by converting future values to present value; a mechanism, not a genus-instance.", "reason": "Discounting is a technique that achieves commensurability across time by converting future values to present value; a mechanism, not a genus-instance. Commensurability supplies the prerequisite condition: Diverse values expressed in common metric enabling comparison. Discounting (Present Value) operates against that background: Present value calculation. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "discrepancy_driven_correction": [ { "child": "discrepancy_driven_correction", "parent": "feedback", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "'feedback's goal-directed specialisation \u2014 feedback structured around an explicit target and a signed gap that the action is keyed to.' A strict subspecies of feedback (which has no target).", "reason": "'feedback's goal-directed specialisation \u2014 feedback structured around an explicit target and a signed gap that the action is keyed to.' A strict subspecies of feedback (which has no target). Feedback supplies the genus: Outputs influence inputs. Discrepancy-Driven Correction preserves that general structure while adding its differentia: Iteratively close the signed gap between a target and an observation. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "discrete_vs_continuous_quantization": [ { "child": "discrete_vs_continuous_quantization", "parent": "discreteness", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Discreteness is one constitutive pole of the bundled discrete-versus-continuous comparison and supplies quantization's separated admissible states.", "reason": "The current node explicitly compares countable separated values with a continuum and then analyzes mechanisms that produce quantized levels. Discreteness is therefore an internal constituent, not merely a neighboring concept: removing separated states removes both one side of the comparison and the defining output of quantization." }, { "child": "discrete_vs_continuous_quantization", "parent": "continuity", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Continuity is the other constitutive pole of the bundled comparison and supplies the continuum against which imposed quantization is defined.", "reason": "The current identity includes a direct discrete-versus-continuous contrast and engineered quantization from continuous signals. Continuity is therefore part of the live bundle. This edge records the source as it exists while a separate identity audit decides whether the bundle should be narrowed and renamed Quantization rather than pretending the already-canonical poles are absent." } ], "discreteness": [ { "child": "discreteness", "parent": "boundary", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Discreteness is a specific kind of boundary where the demarcation produces isolated points with no intermediate values between them.", "reason": "Discreteness is a specialization of boundary. The general pattern marks a demarcation between an entity and what is outside, with the demarcation criterion governing membership and the permeability governing crossings. Discreteness instantiates this with the demarcation isolating each element from its neighbours, formally captured by the discrete topology in which every singleton is open and every point is isolated. The boundary between any element and any other is impermeable: there are no intermediate values. It is boundary maximized to the per-element scale, enabling counting, enumeration, and the combinatorial toolbox." }, { "child": "discreteness", "parent": "set_and_membership", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Discreteness presupposes set and membership because identifying separated states requires the prior availability of distinct elements satisfying a membership criterion.", "reason": "Discreteness presupposes set and membership because its defining property, separated identifiable states with positive minimum spacing or isolated points, makes sense only against the prior availability of a collection of distinct elements that membership picks out. Set supplies the general apparatus of collection-as-first-class-object with a well-defined inclusion criterion; discreteness then characterizes the substructure of the set as one in which elements are individuated without intermediate values. Without set and membership, there is no enumerable collection on which discreteness's combinatorial reasoning, counting, and finite-state machinery can operate." } ], "discretion": [ { "child": "discretion", "parent": "authority", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Discretion presupposes authority because the designed delegation of judgment within a rule's gap requires legitimately empowered decision-making in that space.", "reason": "Discretion presupposes authority because the rule system's deliberate leaving-open of a gap and assignment of the choice within it to a situated agent requires that the agent hold legitimate power to make binding decisions in that space. Without authority's recognized right to bind, the discretionary choice is mere opinion that others may ignore. Discretion is authority operating in the rule's silences: the rule fixes the boundary, and the authority delegated to the agent fills the interior with case-specific judgment that binds through the agent's recognized standing." } ], "diseconomies_of_scale": [ { "child": "diseconomies_of_scale", "parent": "scale", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Diseconomies of scale is the specific shape scale takes when growth past some size makes per-unit performance worse rather than better.", "reason": "Scale names the general fact that system properties and governing laws vary as size or aggregation level changes, so that the system at one scale may be qualitatively different from the system at another. Diseconomies of scale is the particular shape this pattern takes in cost-output relations: beyond some band, coordination overhead and internal friction rise faster than added output, turning the size-efficiency curve unfavorable. It is a structurally-particularized instance of the band-specific-ontology pattern where the band-crossing is felt as an upturn in average cost." }, { "child": "diseconomies_of_scale", "parent": "diminishing_incremental_gains", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Diseconomies of scale is the extension of diminishing marginal contribution into per-unit-cost reversal past a threshold scale.", "reason": "Diseconomies of scale is the extension of diminishing marginal contribution into per-unit-cost reversal past a threshold scale. Diminishing Incremental Gains supplies the genus: Reduced benefit per unit. Diseconomies of Scale preserves that general structure while adding its differentia: Rising per-unit cost once scale grows past a point. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "disjointness": [ { "child": "disjointness", "parent": "set_and_membership", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Disjointness is empty intersection under a fixed identity criterion \u2014 a relation among collections within the set-and-membership apparatus.", "reason": "Disjointness is empty intersection under a fixed identity criterion \u2014 a relation among collections within the set-and-membership apparatus. A specialized set-relation. Set and Membership supplies the genus: Groups and categorizes elements. Disjointness preserves that general structure while adding its differentia: Two or more populated collections share no element. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "dislocation_motion": [ { "child": "dislocation_motion", "parent": "propagation", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Dislocation Motion is typically a specialization of Propagation, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Propagation supplies the genus: The systematic spreading of a signal, effect, or state from a source through a medium or network, where the medium's structure governs how fast it moves, how it attenuates, and which paths it follows. Dislocation Motion preserves that general structure while adding its differentia: Large-scale change of an ordered medium achieved by propagating a localised defect rather than rearranging every unit at once. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "dispersion": [ { "child": "dispersion", "parent": "propagation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Dispersion is the property-indexed differentiation of rates within a propagating bundle \u2014 a specialization of propagation ('not propagation as such').", "reason": "Dispersion is the property-indexed differentiation of rates within a propagating bundle \u2014 a specialization of propagation ('not propagation as such'). Propagation supplies the genus: The systematic spreading of a signal, effect, or state from a source through a medium or network, where the medium's structure governs how fast it moves, how it attenuates, and which paths it follows. Dispersion preserves that general structure while adding its differentia: A co-launched bundle separates because propagation rate depends on a per-component property. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "disruptive_innovation": [ { "child": "disruptive_innovation", "parent": "creative_destruction", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Disruptive innovation is the specific trajectory-crossing case within the broad Schumpeterian creative_destruction \u2014 an INITIALLY INFERIOR entrant on a cheaper steeper curve crossing the incumbent's value curve.", "reason": "Disruptive innovation is the specific trajectory-crossing case within the broad Schumpeterian creative_destruction \u2014 an INITIALLY INFERIOR entrant on a cheaper steeper curve crossing the incumbent's value curve. creative_destruction also includes SUSTAINING displacements that are not disruptive. The inversion test (was the entrant initially worse on the headline metric?) distinguishes them. 'creative destruction is the broader category and disruptive innovation a specific mechanism within it.'. Creative Destruction supplies the genus: Replacement through innovation. Disruptive Innovation preserves that general structure while adding its differentia: An initially inferior entrant on a cheaper, steeper trajectory crosses the incumbent's value curve and displaces it, because the terms of competition shift rather than the entrant winning on the old ones. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "dissipation": [ { "child": "dissipation", "parent": "irreversibility", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Dissipation presupposes irreversibility because the unrecoverable conversion of order into heat is the defining one-way process irreversibility names.", "reason": "Dissipation is the systematic conversion of organized energy or structural order into thermalized, un-recoverable form through interactions with many degrees of freedom. This rests on irreversibility: the structural preclusion of restoring a process's prior state without a costly compensating change in the environment. Dissipation cannot be a coherent pattern unless the conversion has a privileged direction; the entropy-increase clause that makes friction, viscosity, and Joule heating dissipative is exactly the thermodynamic structural feature irreversibility specifies as its mechanism." } ], "distortion": [ { "child": "distortion", "parent": "transformation", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Distortion is a transformation's DEVIATION from a reference faithful one; it presupposes a transformation.", "reason": "Distortion is a transformation's DEVIATION from a reference faithful one; it presupposes a transformation. Transformation supplies the prerequisite condition: A rule-governed mapping that restructures an input into a different output, holding certain invariants fixed while altering others. Distortion operates against that background: Systematic, mapping-induced deviation of an output from a faithful rendering of its input. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." }, { "child": "distortion", "parent": "bias", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "A systematic, rule-governed, non-random deviation of output from faithful input is precisely bias's systematic-directional-error signature applied to signal transformation.", "reason": "A systematic, rule-governed, non-random deviation of output from faithful input is precisely bias's systematic-directional-error signature applied to signal transformation. Bias supplies the genus: Systematic, directional error distinct from random noise. Distortion preserves that general structure while adding its differentia: Systematic, mapping-induced deviation of an output from a faithful rendering of its input. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "distributional_assumption": [ { "child": "distributional_assumption", "parent": "statistical_inference", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Distributional assumption presupposes statistical inference because the commitment to a distribution family is meaningful only within the inferential reasoning it enables.", "reason": "A distributional assumption is a structural commitment to model uncertain quantities under a specific probability-distribution family, made in service of drawing conclusions from samples about populations or future outcomes. Without statistical inference's machinery \u2014 reasoning from finite observations to underlying processes with explicit accounting for sampling variability and model uncertainty \u2014 there would be no purpose to imposing distributional structure on data. Statistical inference supplies the reasoning context that makes the distributional-assumption choice a load-bearing modeling decision rather than mere descriptive labeling." }, { "child": "distributional_assumption", "parent": "probability", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "A distributional assumption presupposes probability because it commits to a specific probability distribution shape for uncertain quantities.", "reason": "A distributional assumption presupposes probability because the commitment to normal, exponential, power-law, or any other shape family is a commitment within probability's apparatus -- the assignment of coherent numerical weights over outcomes obeying additivity, normalization, and conditioning. Without probability's framework of sample space, events, and measure, there is no distribution to assume, no parametric structure to impose, and no model risk to bear. The assumption is a chosen restriction within the infinite-dimensional space of probability distributions probability theory provides. Probability supplies the prerequisite condition: Quantifies uncertainty and likelihoods. Distributional Assumption operates against that background: Commitment to assume uncertain quantities follow specific distribution. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." }, { "child": "distributional_assumption", "parent": "assumption", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Distributional Assumption is a specialization of Assumption, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Assumption supplies the genus: A proposition treated as true for the purposes of some reasoning without being currently demonstrated within it, forming the load-bearing layer between what is given and what is concluded. Distributional Assumption preserves that general structure while adding its differentia: Commitment to assume uncertain quantities follow specific distribution. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "distributional_effects": [ { "child": "distributional_effects", "parent": "aggregation", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Distributional_effects is the critical recognition of what the aggregation operation conceals \u2014 the vector behind the scalar; it presupposes aggregation as the collapsing step.", "reason": "Distributional_effects is the critical recognition of what the aggregation operation conceals \u2014 the vector behind the scalar; it presupposes aggregation as the collapsing step. Aggregation supplies the prerequisite condition: Deliberately collapsing many items into a single summary, choosing which information to discard to gain tractability. Distributional Effects operates against that background: An aggregate outcome conceals systematically heterogeneous, unit-level changes. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "divergence_convergence_in_the_design_process": [ { "child": "divergence_convergence_in_the_design_process", "parent": "variation_strategies", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Divergence-convergence presupposes variation strategies because the divergence phase systematically generates the variety the convergence phase then selects from.", "reason": "Divergence-convergence is the cyclical macro-structure of disciplined design: a divergence phase deliberately expands the space of candidate framings and concepts, followed by a convergence phase that evaluates and narrows. The divergence phase is itself a variation strategy \u2014 controlled injection of variety into a process to surface alternatives. Variation strategies supplies the general practice of using variation as a deliberate tool to surface options and escape local optima. Divergence-convergence presupposes that practice as the engine of its divergence half, on which the subsequent convergence selection then operates." }, { "child": "divergence_convergence_in_the_design_process", "parent": "iteration", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Divergence-convergence in the design process presupposes iteration because its expand-then-narrow phases recur cyclically with each cycle building on the previous one.", "reason": "Divergence-convergence is structured as a recurring cycle: a divergence phase generates breadth, a convergence phase narrows to a chosen candidate, and the process then re-opens to another divergence phase at finer grain. Without iteration's machinery \u2014 repeated application of a process with state carried between rounds and a notion of progress measured across them \u2014 there would be no way to organize the design process as cumulative cycles; the expand-and-narrow moves would collapse into a single non-recurring sequence rather than a productive macro-structure." } ], "diversification": [ { "child": "diversification", "parent": "risk", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Operates to reduce the variance of a total outcome over multiple exposures, each with its own uncertainty; presupposes risk (a known distribution of outcomes to manage).", "reason": "Operates to reduce the variance of a total outcome over multiple exposures, each with its own uncertainty; presupposes risk (a known distribution of outcomes to manage). Risk supplies the prerequisite condition: Exposure to a known distribution of possible outcomes. Diversification operates against that background: Spreading exposures across positions whose failure modes are uncorrelated reduces total-outcome variance; correlation, not count, drives the benefit. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "division_of_labor": [ { "child": "division_of_labor", "parent": "specialization", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Division of labor presupposes specialization because partitioning a joint task into narrow assigned roles depends on each performer narrowing function.", "reason": "Division of labor is the system-level partitioning of joint production into distinct sub-tasks assigned to distinct performers whose specialized outputs are re-integrated. This rests on specialization: components narrowing to distinct partial functions rather than remaining general-purpose, trading self-sufficiency for higher collective performance through narrowing, complementarity, and integration. Smith's pin-factory analysis is the same observation in both directions. Without specialization's narrowing-plus-complementarity structure, the partitioned sub-tasks could not yield the productivity gain that distinguishes division of labor from mere parallel duplication of the whole task." } ], "dose_response_relationship": [ { "child": "dose_response_relationship", "parent": "nonlinearity", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Dose-response relationship presupposes nonlinearity because the characteristic curves are sigmoidal with thresholds, saturation, and ceilings rather than proportional.", "reason": "Dose-response relationship presupposes nonlinearity because the canonical dose-response curve is structurally nonlinear: it exhibits thresholds below which response is negligible, sigmoidal rise through a sensitive range, and saturation at a ceiling effect. The function's clinically meaningful shape parameters (potency, efficacy, slope, threshold, ceiling) are precisely the features of a nonlinear input-output relation. Without the prior commitment that scaling inputs need not scale outputs proportionally and that thresholds and saturation are structural rather than accidental, dose-response would collapse to a trivial linear scaling." }, { "child": "dose_response_relationship", "parent": "function_mapping", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Dose-response relationship is a specialization of function (mapping) that assigns response magnitudes deterministically to dose levels.", "reason": "Dose-response relationship is a specialization of function. Specifically, it instantiates the rule-assigning-each-input-exactly-one-output structure with dose as domain element and response magnitude as codomain element, capturing the Paracelsus insight that toxicity is a quantity-function rather than a substance-property. It commits to determinism in the function-theoretic sense -- same dose, same expected response in the specified system -- and is parameterized by characteristic shape features (potency, efficacy, slope, threshold, ceiling) that distinguish it from a mere correlation or noisy relation." } ], "double_counting": [ { "child": "double_counting", "parent": "aggregation", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "'double counting is aggregation, just aggregation that has gone wrong at a specific place' \u2014 it presupposes the aggregation operation and is the failure where overlapping buckets are summed without subtracting |A n B|.", "reason": "'double counting is aggregation, just aggregation that has gone wrong at a specific place' \u2014 it presupposes the aggregation operation and is the failure where overlapping buckets are summed without subtracting |A n B|. Presupposes-parent, not is a specialization of. Aggregation supplies the prerequisite condition: Deliberately collapsing many items into a single summary, choosing which information to discard to gain tractability. Double Counting operates against that background: Including the same underlying unit more than once in an aggregate because overlapping buckets are summed without subtracting their intersection. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "downward_causation": [ { "child": "downward_causation", "parent": "emergence", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Downward Causation presupposes Emergence: it requires a higher level whose properties are not reducible to lower-level constituents.", "reason": "Downward causation claims that higher-level structures causally influence the behavior of their lower-level constituents. That claim requires the higher level to exist as a causally relevant level of organization with properties not trivially reducible to lower-level descriptions \u2014 exactly what Emergence supplies. Without emergent higher-level structure there is no upper terminus from which downward influence could flow. Downward causation presupposes emergence as the structural precondition that establishes the levels between which downward influence is asserted to run." }, { "child": "downward_causation", "parent": "layering", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Downward Causation presupposes Layering: it requires a stratified architecture in which higher strata can influence lower ones.", "reason": "Downward causation asserts that influence flows from higher strata back onto their lower-level constituents. That assertion requires a stratified architecture in which strata are distinguishable, each with its own descriptive vocabulary and operational regime \u2014 the structure supplied by Layering. Without a layered organization there is no higher stratum from which influence could descend and no lower stratum to receive it. Downward causation presupposes layering as the structural substrate that makes upward and downward causal directions meaningfully distinct." }, { "child": "downward_causation", "parent": "causality", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Downward causation presupposes causality because it asserts genuine cause-effect influence flowing from higher levels back to lower-level constituents.", "reason": "Downward causation presupposes causality because the claim that wholes causally constrain or shape their parts requires the full four-component causal relation -- antecedent, consequent, productive connection, and modal robustness -- to hold across the hierarchical boundary. Without causality's apparatus, downward influence collapses to mere description or correlation. The controversial commitment of the prime is precisely that the higher level satisfies cause-component requirements (counterfactual sensitivity, productive linkage) with respect to lower-level dynamics, not just that aggregate descriptions are explanatorily useful." }, { "child": "downward_causation", "parent": "micro_macro_linkage", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "The downward context edge (macro reshapes micro situations) \u2014 'the other half'.", "reason": "The downward context edge (macro reshapes micro situations) \u2014 'the other half'. After the philosophy frame is stripped away, the retained structural roles are those of Micro Macro Linkage: A two-way bridge by which micro units produce macro regularities and macro conditions reshape the micro situation. Downward Causation adds the local frame and commitments expressed in its identity: Higher-level influence. The parent pattern remains recognizable without that vocabulary, while the child is the framed realization of it. That preservation test establishes decomposition rather than taxonomic subsumption." } ], "dragon_king_theory": [ { "child": "dragon_king_theory", "parent": "tipping_points_or_phase_transitions", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "A phase transition/bifurcation near criticality is the mechanism (second generator) dragon-king theory invokes; the prime is the statistical SIGNATURE and diagnostic built around it.", "reason": "A phase transition/bifurcation near criticality is the mechanism (second generator) dragon-king theory invokes; the prime is the statistical SIGNATURE and diagnostic built around it. Part-to-whole: presupposes the critical-transition mechanism but adds the bimodal-tail test and precursor families. Tipping Points (or Phase Transitions) supplies the prerequisite condition: Abrupt state change. Dragon King Theory operates against that background: The largest events in some complex systems come from a distinct mechanism \u2014 synchronization or bifurcation near criticality \u2014 leaving them above the power-law tail and partly predictable. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "dunning_kruger_effect": [ { "child": "dunning_kruger_effect", "parent": "bias", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Dunning-Kruger effect is a specialization of bias in which low-competence individuals systematically overestimate their own competence.", "reason": "The Dunning-Kruger effect is a specialization of bias. The general bias pattern is systematic, signed displacement of outputs from a true value, persisting beyond noise. Dunning-Kruger specializes by giving the displacement a specific shape: self-assessment of competence is systematically displaced upward at low competence and modestly downward at high competence, with the same metacognitive deficit producing both the incompetence and the failure to recognize it. The same systematic-rather-than-random-displacement logic of bias applies, with self-assessment as the estimating process and the competence gap as the specific cause of the offset." }, { "child": "dunning_kruger_effect", "parent": "metacognition", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Dunning-Kruger effect presupposes metacognition because the self-assessment failure it names is a failure of monitoring one's own competence.", "reason": "The Dunning-Kruger effect is the pattern in which low-competence individuals overestimate their competence because they lack the metacognitive apparatus to recognize their lack. The effect is constitutively a failure of second-order monitoring: judging one's own performance, identifying gaps, calibrating confidence. Metacognition supplies precisely that monitoring capacity \u2014 representing and evaluating one's own cognitive processes. Without metacognition as a structural commitment of cognitive systems, there would be no self-assessment operation to fail and no double-curse mechanism in which the missing competence and the missing self-awareness coincide." } ], "dynamic_programming": [ { "child": "dynamic_programming", "parent": "optimization", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Dynamic programming is the specific shape optimization takes when problems exhibit optimal substructure and overlapping subproblems.", "reason": "Dynamic programming is the specific shape optimization takes when the problem has optimal substructure (the optimal solution can be assembled from optimal solutions to subproblems) and overlapping subproblems (the same subproblems recur many times). Optimization in general is the search over a feasible set for an element maximizing or minimizing an objective subject to constraints. DP instantiates this by exploiting recursive structure: the search is decomposed across stages or subproblems, results cached, and assembled bottom-up or top-down. Bellman's principle of optimality is what licenses the recursive decomposition into a polynomial-time procedure." }, { "child": "dynamic_programming", "parent": "recurrence", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Dynamic programming presupposes recurrence because its decomposition into overlapping subproblems is expressed as a Bellman recurrence relation.", "reason": "Dynamic programming solves problems by decomposing them into overlapping subproblems whose solutions are stored and reused, exploiting optimal substructure. This presupposes recurrence: the structural property by which a pattern, condition, or value reappears across iterations, classically formalized as recurrence relations. The Bellman equation is precisely such a recurrence: the optimal value at stage n is a function of optimal values at smaller subproblems. Both memoization and tabulation are mechanisms for exploiting the reappearance of the same subproblem; without recurrence as the structural reason that the same subproblems recur, DP's caching strategy yields no speedup." }, { "child": "dynamic_programming", "parent": "decomposition", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Dynamic programming is the specific shape decomposition takes when subproblems overlap and optimal substructure lets cached solutions compose into the full answer.", "reason": "Dynamic programming is the specific shape decomposition takes when the whole is a decision problem with optimal substructure and overlapping subproblems. The breaking-into-recombinable-parts pattern that decomposition names manifests here as identifying subproblems whose optimal solutions combine into the parent's optimum; the overlap means the same parts recur, making memoization or bottom-up tabulation transform exponential recursion into polynomial computation. Optimal substructure is the reversibility-and-recombinability condition decomposition presupposes, sharpened for optimization contexts. After the operations_research frame is stripped away, the retained structural roles are those of Decomposition: Breaking a whole into parts that can be analyzed independently and recombined to reconstitute the whole, making complexity tractable through divide-and-conquer. Dynamic Programming adds the local frame and commitments expressed in its identity: Solve via subproblem reuse. The parent pattern remains recognizable without that vocabulary, while the child is the framed realization of it. That preservation test establishes decomposition rather than taxonomic subsumption." } ], "echo_chamber": [ { "child": "echo_chamber", "parent": "feedback", "type": "composition", "flavor": "", "qualifier": "strict", "reason_short": "Echo chamber is constituted by a self-reinforcing positive-feedback loop plus loss of the corrective negative-feedback signal.", "reason": "Echo chamber is constituted by a self-reinforcing positive-feedback loop plus loss of the corrective negative-feedback signal. Feedback supplies the prerequisite condition: Outputs influence inputs. Echo Chamber operates against that background: A bounded community whose input filter and internal reinforcement gradient amplify shared beliefs and strip out the corrective signal that would moderate them, while members experience the environment as complete rather than filtered. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "ecological_succession": [ { "child": "ecological_succession", "parent": "state_and_state_transition", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Stage-ordered occupancy through a sequence of states; succession is the specialization where the current stage modifies its own substrate to gate the next.", "reason": "Stage-ordered occupancy through a sequence of states; succession is the specialization where the current stage modifies its own substrate to gate the next. State and State Transition supplies the genus: Captures system condition and evolution. Ecological Succession preserves that general structure while adding its differentia: Stage-ordered change in which the current occupants themselves modify the substrate, determining which stage can come next through facilitation, inhibition, or tolerance. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." }, { "child": "ecological_succession", "parent": "path_dependence", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Each successional stage modifies its own substrate to determine which stage comes next \u2014 a path-dependent, order-locked sequence.", "reason": "Each successional stage modifies its own substrate to determine which stage comes next \u2014 a path-dependent, order-locked sequence. Path Dependence supplies the genus: Outcomes are shaped by the specific historical sequence of past choices, which lock in consequences and foreclose alternatives that persist despite present incentives to change. Ecological Succession preserves that general structure while adding its differentia: Stage-ordered change in which the current occupants themselves modify the substrate, determining which stage can come next through facilitation, inhibition, or tolerance. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "economies_of_scale": [ { "child": "economies_of_scale", "parent": "increasing_returns", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Economies of scale are a specialization of increasing returns in which average cost per unit falls as production scale grows.", "reason": "Economies of scale are a kind of increasing returns specialized to the supply side: as the cumulative scale of production grows, average cost per unit declines because fixed costs spread, specialization deepens, larger equipment becomes viable, and learning accumulates. It inherits the general pattern that the marginal benefit of additional input rises with the cumulative state variable, producing self-reinforcing advantage, and supplies the specific case where the accumulating variable is production volume and the increasing-returns mechanism operates through declining unit cost rather than rising user utility." }, { "child": "economies_of_scale", "parent": "scale", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Economies of scale is the specific shape scale takes when growth lowers per-unit cost through fixed-cost spreading, specialization, and learning.", "reason": "Scale names the general fact that system properties and governing laws vary as size or aggregation level changes, so the system at one scale may be qualitatively different from at another. Economies of scale is the particular shape this pattern takes when expansion lowers average cost per unit through fixed-cost spreading, deeper specialization, larger-equipment viability, bulk purchasing, and accumulated learning. It is a structurally-particularized instance of band-specific behavior in which the favorable band makes growth self-reinforcing and can reshape industry competitive structure." } ], "economies_of_scope": [ { "child": "economies_of_scope", "parent": "synergy_and_antagonism", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Economies of scope is the specific shape synergy and antagonism takes when shared resources across heterogeneous outputs make joint production cheaper than separate production.", "reason": "Economies of scope is the cost-synergy particularization of synergy and antagonism: joint production of distinct outputs produces a combined cost lower than the additive baseline of stand-alone production, because a shared indivisible resource is amortized across heterogeneous uses. Where synergy and antagonism names deviations from a baseline combination rule generally, scope economies specify the baseline (additive cost) and the direction of deviation (sub-additive), with the interaction being the amortization mechanic of the shared substrate." } ], "economy_of_force": [ { "child": "economy_of_force", "parent": "allocation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Economy of force is a specialized allocation rule: drive non-decisive efforts to their minimum-viable floor so freed mass concentrates at the decisive point.", "reason": "Economy of force is a specialized allocation rule: drive non-decisive efforts to their minimum-viable floor so freed mass concentrates at the decisive point. It is allocation (assign limited supply across competing claimants) plus a decisiveness gradient + minimum-viable threshold + reserve." } ], "ecotone": [ { "child": "ecotone", "parent": "boundary", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "An ecotone is a boundary GIVEN DEPTH \u2014 it presupposes a boundary between two regimes and adds a band of measurable extent, gradient, exchange, and zone-specific generative structure.", "reason": "An ecotone is a boundary GIVEN DEPTH \u2014 it presupposes a boundary between two regimes and adds a band of measurable extent, gradient, exchange, and zone-specific generative structure. It is not an is-a of boundary (a boundary is a curve; the ecotone is the opposite \u2014 a generative band) so composition, not subsumption." } ], "edge_effect": [ { "child": "edge_effect", "parent": "gradient", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "The edge effect is the band of phenomena a STEEPENED gradient drives at a regime boundary; it presupposes gradient (the rate-of-change) as its load-bearing ingredient.", "reason": "The edge effect is the band of phenomena a STEEPENED gradient drives at a regime boundary; it presupposes gradient (the rate-of-change) as its load-bearing ingredient. 'The gradient is an ingredient, not the prime.'. Gradient supplies the prerequisite condition: Distribution and change over space/time. Edge Effect operates against that background: Where two regimes meet, a thin high-gradient band forms a distinct third regime with its own resident phenomena, absent from either interior. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." }, { "child": "edge_effect", "parent": "boundary", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "The band forms AROUND a boundary line of two abutting regimes; presupposes boundary as the reference locus (file explicitly band-not-line, but the line is the reference the band forms around).", "reason": "The band forms AROUND a boundary line of two abutting regimes; presupposes boundary as the reference locus (file explicitly band-not-line, but the line is the reference the band forms around). Boundary supplies the prerequisite condition: Defines system limits. Edge Effect operates against that background: Where two regimes meet, a thin high-gradient band forms a distinct third regime with its own resident phenomena, absent from either interior. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "editorial_independence": [ { "child": "editorial_independence", "parent": "impartiality", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Editorial independence is the STRUCTURAL condition that secures credible (impartial-seeming) judgment regardless of the evaluator's disposition \u2014 it relocates impartiality from a disposition to an institutional firewall ('s central move).", "reason": "Editorial independence is the STRUCTURAL condition that secures credible (impartial-seeming) judgment regardless of the evaluator's disposition \u2014 it relocates impartiality from a disposition to an institutional firewall ('s central move). Impartiality supplies the prerequisite condition: Treatment that depends only on relevant features and is invariant under the identity of the party involved. Editorial Independence operates against that background: An evaluative judgment institutionally insulated from the parties it affects. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "effect_size": [ { "child": "effect_size", "parent": "comparison", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Effect size presupposes comparison because magnitude is read off the relation between two or more co-considered quantities.", "reason": "Effect size quantifies the magnitude of a relationship or difference in substantive, interpretable units, separately from statistical significance. This presupposes comparison: placing items under a shared frame, selecting a dimension along which they are co-considered, applying an alignment rule, and reading off a relation. An effect size is precisely such a reading: it requires comparands (typically treatment and control, or two conditions), a shared scale, and an alignment rule that makes the difference commensurable. Without comparison's operation of generating relational information, the magnitude has nothing to be the magnitude of." }, { "child": "effect_size", "parent": "scale", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Effect size presupposes scale because it quantifies the magnitude of an observed relationship in substantive units of measurement.", "reason": "Effect size presupposes scale because reporting magnitude in interpretable units requires a chosen scale -- raw difference, standardized mean difference, odds ratio, variance explained -- against which the effect is sized. Without scale's commitment to specifying size, resolution, or unit of aggregation, there is no axis along which to express how large the deviation from zero is and no comparison across studies on a common dimension. Effect size is the scale at which a relationship is described, separated from the significance question of whether it differs from zero. Scale supplies the prerequisite condition: Properties change with size. Effect Size operates against that background: Magnitude of effect. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "efference_copy": [ { "child": "efference_copy", "parent": "predictive_coding", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "'not predictive coding in general; efference copy is the specific self-versus-world attribution built from broadcasting a command copy to the perceiver.' predictive_coding (predict input, propagate error) is the genus; efference copy is the self-attribution specialization.", "reason": "'not predictive coding in general; efference copy is the specific self-versus-world attribution built from broadcasting a command copy to the perceiver.' predictive_coding (predict input, propagate error) is the genus; efference copy is the self-attribution specialization. Predictive Coding supplies the genus: A system predicts its input and propagates only the prediction error. Efference Copy preserves that general structure while adding its differentia: Routing an internal copy of a command to the perceiver so self-caused effects can be predicted and subtracted, leaving only the world-caused remainder. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "efficiency": [ { "child": "efficiency", "parent": "comparison", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Efficiency presupposes comparison because its verdict exists only relative to feasible alternatives evaluated under a shared input\u2013output frame.", "reason": "An arrangement is efficient only relative to actual or counterfactual alternatives aligned on the same outputs, resource dimensions, and acceptance criteria. Without Comparison's co-framing and relation read-off there is no dominance test, frontier, or removable slack\u2014only an ungrounded praise word." }, { "child": "efficiency", "parent": "constraint", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Efficiency presupposes constraints because they define the feasible alternatives against which resource use and result are judged.", "reason": "Technology, resource, quality, safety, reliability, and regime constraints determine which alternatives are genuinely available. Remove or omit one and the frontier moves, so the same operating point may change from efficient to inefficient or the reverse." } ], "efficiency_rebound": [ { "child": "efficiency_rebound", "parent": "counterresponse_offset", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Efficiency rebound is a counterresponse offset specialized to demand expansion induced by an efficiency-driven fall in effective unit cost.", "reason": "It inherits a direct improvement, a coupled adaptive response, and graded offset accounting. It adds efficiency as the intervention, effective per-unit cost as the changed condition, activity volume as the response, and resource saving as the quantity being offset." }, { "child": "efficiency_rebound", "parent": "efficiency", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "The rebound begins with a genuine efficiency gain that reduces resources required per unit of service.", "reason": "Without an input-output improvement at fixed output there is no expected per-unit saving for expanded activity to consume. Efficiency supplies the direct gain; the rebound describes the aggregate response after unit cost falls." }, { "child": "efficiency_rebound", "parent": "price_elasticity", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "The magnitude of efficiency rebound is typically governed by how strongly activity volume responds to the resulting fall in effective price.", "reason": "Direct rebounds in market activities are naturally parameterized by price elasticity. Indirect, economy-wide, and shadow-price responses can occur without a single observable market-price elasticity, so the dependency is typical rather than strict." } ], "efficient_market_hypothesis_emh": [ { "child": "efficient_market_hypothesis_emh", "parent": "arbitrage_finance", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "The efficient market hypothesis presupposes financial arbitrage because the mechanism by which prices incorporate information is competitive arbitrage trading.", "reason": "The efficient market hypothesis presupposes financial arbitrage because its central claim \u2014 that asset prices incorporate all available information so quickly and completely that no strategy yields systematic risk-adjusted excess returns \u2014 rests on a prior mechanism: aggressive arbitrage by informed traders impounds information into prices. Without arbitrage's structure of exploiting price discrepancies and thereby closing them, there is no force driving prices toward fundamental value. EMH inherits arbitrage's convergence dynamic and supplies the macro-level consequence: in the limit of frictionless competitive arbitrage, prices reflect information and arbitrage opportunities disappear." } ], "eigenvalue_and_eigenvector": [ { "child": "eigenvalue_and_eigenvector", "parent": "transformation", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Every Eigenvalue/Eigenvector pair is defined relative to a transformation whose invariant directions and scalar gains it records.", "reason": "Eigenpairs are a fingerprint of an operator, not the operator itself. Every admitted case requires a transformation acting on a space before one can ask which nonzero directions it merely scales and by what factor. The eigen-structure adds the invariant directions, scalar gains, spectrum, dominant mode, and spectral gap." }, { "child": "eigenvalue_and_eigenvector", "parent": "linearity", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Eigenvalue/Eigenvector structure strictly presupposes Linearity because scalar multiples and sums must be respected by the operator whose equation is Av = \u03bbv.", "reason": "The live identity is eigen-structure for a linear transformation. Its invariant-direction equation, modal decomposition, basis expansion, and independent scalar gains all depend on homogeneity and additivity. Fixed Point is not the genus: an eigenvector with eigenvalue other than one changes magnitude, and a projective-direction reinterpretation changes the map and discards the eigenvalue component." } ], "elicitation_channel_contribution": [ { "child": "elicitation_channel_contribution", "parent": "observability", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Elicitation channel contribution presupposes observability because it diagnoses how a constructed output channel limits recovery of an internal state from the outputs it produces.", "reason": "The channel-crossing test asks which hidden-state distinctions survive and which recorded differences are attributable to the channel. Observability supplies the prerequisite condition: Infer internal state externally. Elicitation Channel Contribution operates against that background: The recorded representation of a system's unobserved state is a joint product of state and the elicitation channel, so the analyst's marginal of interest is recoverable only by controlling the channel. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." }, { "child": "elicitation_channel_contribution", "parent": "representation", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Elicitation channel contribution contains representation because the channel maps a target state into a recorded medium under a faithfulness claim whose systematic distortion is being diagnosed.", "reason": "The answer, label, score, testimony, or model output is a channel-produced representation rather than the internal state itself. Representation supplies an internal constituent: Model complex ideas. Elicitation Channel Contribution requires that role within this mechanism: The recorded representation of a system's unobserved state is a joint product of state and the elicitation channel, so the analyst's marginal of interest is recoverable only by controlling the channel. Remove the parent-role and the child loses a required internal operation, even though the parent can exist outside the child. The child is therefore built from the parent rather than being a taxonomic kind of it." } ], "embeddability": [ { "child": "embeddability", "parent": "constraint", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Embeddability requires binding ambient and conflict Constraints that divide possible placements into admissible and forbidden sets.", "reason": "Constraint supplies the hard predicate defining feasibility. Embeddability specializes the decision object to faithful placements of a substrate into a host and asks whether the admissible placement set is empty, without ranking the survivors." }, { "child": "embeddability", "parent": "embedding", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Embeddability requires the class of structure-preserving injective Embeddings whose conflict-free subset is tested for non-emptiness.", "reason": "Embedding supplies the possible faithful placements from substrate to host. Embeddability adds the ambient limits, a conflict predicate, the existential yes-or-no gate, a hardness landscape, and the remediation triangle when no admissible witness exists." } ], "embedding": [ { "child": "embedding", "parent": "representation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Embedding is 'the FAITHFUL INJECTIVE special case' of representation \u2014 representation models A by B in any (possibly lossy, many-to-one) way; embedding adds injectivity and structure-preservation.", "reason": "Embedding is 'the FAITHFUL INJECTIVE special case' of representation \u2014 representation models A by B in any (possibly lossy, many-to-one) way; embedding adds injectivity and structure-preservation. A specialization of representation. Representation supplies the genus: Model complex ideas. Embedding preserves that general structure while adding its differentia: A structure-preserving injection of one system faithfully into a richer one. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "emergence": [ { "child": "emergence", "parent": "micro_macro_linkage", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "The upward aggregation edge (micro produces macro regularities) \u2014 'emergence is half the pattern'.", "reason": "The upward aggregation edge (micro produces macro regularities) \u2014 'emergence is half the pattern'. After the systems_cybernetics frame is stripped away, the retained structural roles are those of Micro Macro Linkage: A two-way bridge by which micro units produce macro regularities and macro conditions reshape the micro situation. Emergence adds the local frame and commitments expressed in its identity: Complex patterns from simple rules. The parent pattern remains recognizable without that vocabulary, while the child is the framed realization of it. That preservation test establishes decomposition rather than taxonomic subsumption." } ], "emergent_formalization": [ { "child": "emergent_formalization", "parent": "emergence", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Emergent formalization is the specific shape emergence takes when informal usage patterns crystallize into formal grammatical structure over time.", "reason": "Emergent formalization is the structurally-particularized form emergence takes in the diachronic-linguistic case: the lower-level constituents are token usages and chunking events in speech communities, the higher-level phenomenon is grammatical rule status, the sense of novelty is that the rule has properties (productivity, obligatoriness) absent from any single token, and the conditions are the frequency and conventionalization thresholds that grammaticalization requires. It satisfies emergence's four-part specification, particularized to language change." } ], "emic_and_etic": [ { "child": "emic_and_etic", "parent": "viewpoint", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Emic/etic analysis contains two coordinated viewpoints whose insider and outsider stations generate different access, occlusion, and bias profiles.", "reason": "The emic scheme is positioned inside participants' competence and the etic scheme outside it under a comparative analytic framework. Remove positioned access from either description and the paired distinction collapses; the method adds distinct closure rules and treats divergence between the two views as evidence rather than error." } ], "emotional_contagion": [ { "child": "emotional_contagion", "parent": "contagion", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Emotional contagion is a kind of contagion in which affective states spread through automatic mimicry, synchrony, and afferent feedback.", "reason": "Emotional contagion is a specialization of contagion: an affective state spreads from one agent to a connected one through automatic coupling \u2014 mimicry of facial expression, postural synchrony, vocal entrainment \u2014 and reproduces in each new host whose own affect is then a fresh transmission source. It inherits contagion's structural commitments \u2014 contact-mediated, self-reproducing across a network, governed by transmission rate and contact topology \u2014 particularized to the affective-state case where the channel is largely sub-deliberative." } ], "emotional_reasoning": [ { "child": "emotional_reasoning", "parent": "cognitive_appraisal", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Emotional reasoning presupposes cognitive appraisal because treating felt emotion as evidence about reality requires a prior appraisal-generated affective state to misuse.", "reason": "Emotional reasoning presupposes cognitive appraisal because the distortion consists in treating a felt emotional state as evidence about external reality \u2014 and that felt emotion is precisely the output of appraisal's primary and secondary evaluative processes. Without cognitive appraisal's machinery for generating emotion as the configured response to a construed situation, there would be no affective input for the reasoner to mistake as inferential evidence. Cognitive appraisal supplies the emotion-generation operation; emotional reasoning is the downstream short-circuit that collapses the distinction between the appraised feeling and the unappraised facts." }, { "child": "emotional_reasoning", "parent": "bias", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Emotional reasoning is a specialization of bias; it is the systematic distortion of belief by treating felt affect as evidence about the world.", "reason": "Bias is the structural property of a process whose outputs are systematically displaced in a consistent direction from a true or fair value. Emotional reasoning is one such process: it systematically inflates the probability of threats when fear is felt and of wrongness when guilt is felt, treating affective state as inferential input about external reality. It inherits bias's directional-offset structure and adds the specific mechanism \u2014 affect-as-evidence \u2014 that produces a sign and a direction in the error. A specialization of bias keyed to emotion as the contaminating channel." } ], "emphasis": [ { "child": "emphasis", "parent": "attention", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Emphasis presupposes attention because foregrounding selected information against a background only matters as a mechanism for directing scarce attentional resources.", "reason": "Emphasis presupposes attention because the mechanism of foregrounding selected information against a contrast background is operationally aimed at directing scarce attentional allocation toward the foregrounded element. Without attention's gating function \u2014 the selective allocation of limited processing to a subset of available information \u2014 emphasis vehicles like stress, typography, position, and syntactic marking would have no asymmetric effect to produce, since all input would be processed equally. Attention supplies the scarcity that makes selective allocation meaningful; emphasis supplies the technique that biases the allocation toward chosen content." }, { "child": "emphasis", "parent": "figure_ground", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Emphasis is the specific shape figure-ground takes in rhetorical and linguistic foregrounding of selected content.", "reason": "Figure-ground organizes a perceptual field into a salient figure attended as a bounded object and a recessive ground treated as continuing context. Emphasis is the particular shape this organization takes when the field is informational \u2014 prose, speech, image, layout \u2014 and a deliberate vehicle (prosody, typography, position, syntax) elevates one element above the rest. It is a structurally-particularized instance of the figure-ground primitive whose specific machinery is rhetorical or formatting choice that produces foreground-background contrast in a communicative medium." } ], "emphasis_focal_point": [ { "child": "emphasis_focal_point", "parent": "emphasis", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "A focal point is a specialization of emphasis in which the foregrounded element is positioned to register as the primary site of attention in a visual field.", "reason": "A focal point is a specialization of emphasis in which the foregrounding operates spatially within a visual field or composition, directing the viewer's attention to a designated area as the primary site of interest. It inherits emphasis's general structure of foregrounding a selected element against a contrast background through a vehicle that produces salience, and specializes by fixing the medium to visual composition and the vehicle to the perceptual mechanisms \u2014 placement, contrast, size, isolation, directional flow \u2014 that orchestrate attention. Other elements remain subordinate, supporting rather than competing with the focal area." } ], "empirical_no_failure_anchor": [ { "child": "empirical_no_failure_anchor", "parent": "absence_of_evidence_vs_evidence_of_absence", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "The anchor contains a null finding whose boundary force exists only through the test apparatus's probability of detecting a present failure.", "reason": "The anchor contains a null finding whose boundary force exists only through the test apparatus's probability of detecting a present failure. Remove the detection-side counterfactual and a passed level can no longer constrain the failure boundary; it becomes an uninterpretable silence rather than an empirical no-failure anchor. parent_in_child" }, { "child": "empirical_no_failure_anchor", "parent": "dose_response_relationship", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "A maximum passed input level presupposes an ordered mapping from input intensity to the specified response or failure criterion.", "reason": "A maximum passed input level presupposes an ordered mapping from input intensity to the specified response or failure criterion. Without comparable response observations across ordered input levels there is no maximum clean level, no adjacent failed level, and no input-axis bound. The anchor is one selected test coordinate plus its provenance; a dose- response relationship is the full mapping across the tested or modeled range." }, { "child": "empirical_no_failure_anchor", "parent": "experimental_design", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "The anchor presupposes a designed investigation that fixes tested levels, sampled units, duration, endpoints, replication, and the detection apparatus.", "reason": "The anchor presupposes a designed investigation that fixes tested levels, sampled units, duration, endpoints, replication, and the detection apparatus. Changing dose spacing, sample size, duration, endpoint sensitivity, or replication can move the highest passed level while the underlying system stays fixed; without a designed test regime the anchor has no identity. The anchor is an output statistic and boundary claim produced by a design; Experimental Design is the wider architecture for gathering comparative or causal evidence." }, { "child": "empirical_no_failure_anchor", "parent": "projection", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "The anchor is a projection specialized to reducing the full test-response dataset to the maximal tested level that cleared a stated failure criterion.", "reason": "The anchor is a projection specialized to reducing the full test-response dataset to the maximal tested level that cleared a stated failure criterion. Both map a richer source onto a lower-dimensional target by a fixed direction, discard a residual that must remain named, and are stable when reapplied to the same source under the same rule. The child fixes the source to an ordered test-response dataset, the target to one scalar input level, the direction to maximal non-detected failure, and the residual to untested or discarded boundary information." } ], "empty_set": [ { "child": "empty_set", "parent": "set_and_membership", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Empty Set is a specialization of Set and Membership, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "'Not bare set_and_membership... the relationship is parent-and-special-instance.' The empty set is the one distinguished member of the set apparatus carrying specific algebraic roles (union identity, base case, vacuous truth). Set and Membership supplies the genus: Groups and categorizes elements. Empty Set preserves that general structure while adding its differentia: Absence made into a fully-typed, first-class object rather than an error. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "encoding_and_decoding": [ { "child": "encoding_and_decoding", "parent": "transformation", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Encoding and decoding contains two coordinated rule-governed transformations, content to code and code back to recovered content.", "reason": "Encoding and decoding brackets a channel with two distinct mappings, each having an input, scheme-governed restructuring rule, output, and explicit preservation or loss commitments. The pair adds shared-scheme coordination, channel placement, and a localized failure taxonomy beyond either constituent transformation." } ], "encoding_specificity": [ { "child": "encoding_specificity", "parent": "associative_memory", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "'associative memory is the mechanism that retrieves by cue; encoding specificity is the PRINCIPLE that retrievability depends on overlap between encoding-context and retrieval-cue features' \u2014 it governs/uses that mechanism, adding the context-as-key claim.", "reason": "'associative memory is the mechanism that retrieves by cue; encoding specificity is the PRINCIPLE that retrievability depends on overlap between encoding-context and retrieval-cue features' \u2014 it governs/uses that mechanism, adding the context-as-key claim. Presupposes-parent. Associative Memory supplies the prerequisite condition: Content-addressable storage where a cue retrieves linked content. Encoding Specificity operates against that background: Retrievability depends on the overlap between features active at encoding and features available at retrieval, because context is co-encoded into the storage key. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "encounter_surface": [ { "child": "encounter_surface", "parent": "potential_occupancy_region", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "An encounter surface is a persistent hosting site specialized to stranger contact, adding accessibility, mutual observability, shared norms, and sufficient duration for new ties to form.", "reason": "The physical or informational layer persists when no one currently occupies it, admits changing occupants under a stable hosting rule, and remains addressable as a place of contact. It adds stranger-inclusive access, reciprocal visibility, norm governance, and a durability horizon sufficient for new ties to form." } ], "enculturation": [ { "child": "enculturation", "parent": "internalization", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Enculturation is the specific shape internalization takes when an individual absorbs the patterns of their culture across the lifespan.", "reason": "Enculturation is the specific shape internalization takes when the externally-originating items are the explicit rules and tacit patterns of a culture \u2014 kinship terminology, aesthetic preferences, decision-making heuristics, emotional norms \u2014 and the inward-taking proceeds through sustained exposure, observation, and practice within a social group. It is a structurally-particularized instance of an external repertoire crossing into the agent and becoming endogenous, with the added commitment that the source is the encompassing cultural milieu rather than a discrete norm or relationship, and that the process runs lifelong with childhood as the window of most intense acquisition." } ], "engineering_tolerances": [ { "child": "engineering_tolerances", "parent": "approximation", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Engineering tolerances presuppose approximation because defining permissible ranges around a nominal target is bounded-error substitution applied to manufacturing.", "reason": "Engineering tolerances presuppose approximation because specifying a permissible range around a nominal target is the manufacturing-and-measurement instance of substituting a tractable surrogate for an unachievable exact specification while keeping the error bounded and named. Approximation supplies the general discipline that the error is controlled, characterized, and absorbable by the use case; tolerances supply the specific case where the intractable target is exact dimensional or material specification and the surrogate is the permitted variation range that the downstream design can absorb without functional compromise." }, { "child": "engineering_tolerances", "parent": "constraint", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Engineering tolerances is the specific shape constraint takes when admissible variation around a nominal target is explicitly bounded for component acceptance.", "reason": "Constraint is a condition that restricts admissible configurations to those satisfying it, defining the feasible set as a first-class object. Engineering tolerances is the particular shape this pattern takes in manufacturing and design: admissible variation is bounded by explicit upper and lower limits around a nominal target value, with components inside the band accepted and those outside rejected or reworked. It is a structurally-particularized instance of constraint whose specific machinery is dimensional, material, or temporal range specification calibrated to what the design can absorb while still functioning." }, { "child": "engineering_tolerances", "parent": "threshold", "type": "composition", "flavor": "", "qualifier": "strict", "reason_short": "Tolerances are a specification method built from a pair of thresholds (upper/lower bounds), not themselves a kind of single threshold.", "reason": "Tolerances are a specification method built from a pair of thresholds (upper/lower bounds), not themselves a kind of single threshold. Threshold supplies the prerequisite condition: Safe vs harmful levels. Engineering Tolerances operates against that background: Acceptable variation. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "ensemble": [ { "child": "ensemble", "parent": "probability", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Ensemble strictly presupposes Probability because its members are treated as weighted or sampled realizations of a distribution whose uncertainty is to be characterized.", "reason": "Every Ensemble admitted by this entry treats comparable realizations as draws or weighted possibilities under a population or generating model and interprets their spread, quantiles, or frequencies distributionally. Probability supplies the normalized measure, event, weighting, and conditioning apparatus that makes those claims meaningful. The ensemble is not itself a numerical event measure; it adds a member collection, generation protocol, aggregation rule, and representativeness claim." }, { "child": "ensemble", "parent": "aggregation", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Every Ensemble contains an Aggregation rule that maps its member realizations to ensemble-level means, spreads, quantiles, votes, densities, or other distributional outputs.", "reason": "The live Ensemble identity explicitly requires an aggregation rule that combines member outputs into ensemble-level quantities while retaining selected distributional features and suppressing some trajectory detail. Aggregation is therefore a strict constituent. The ensemble as a whole is broader than that operation: it also includes the member population, the generation mechanism, uncertainty coverage, and a representativeness warrant, so subsumption would conflate the analyzed collection with one operation performed on it." } ], "entanglement": [ { "child": "entanglement", "parent": "dependency", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Entanglement is a kind of dependency: subsystems acquire a directed reliance such that one's state cannot be specified without the other's.", "reason": "Entanglement is the quantum-mechanical condition in which subsystems are described by a single joint state that cannot be factored into independent subsystem states, so the value of measurements on one is correlated with measurements on another in ways no local description supports. That irreducible reliance of one subsystem's specification on another is the structure of Dependency \u2014 one element cannot be characterized or acted on independently of another. Entanglement specializes dependency to joint quantum states." }, { "child": "entanglement", "parent": "coupling", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Entanglement is a specialization of coupling in which the linkage is a non-factorable joint quantum state producing irreducibly joint correlations.", "reason": "Entanglement is a specialization of coupling in which the dynamic linkage is implemented through a single joint quantum state that cannot be factored into independent subsystem states. It inherits the general coupling commitment that interaction structure makes one subsystem's state input to another's, and specializes by making that linkage non-classical: the resulting correlations violate Bell-type inequalities and cannot be explained by any local hidden-variable account. The whole carries irreducibly joint information about correlations that no decomposition into part-properties can recover." }, { "child": "entanglement", "parent": "non_locality", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Quantum entanglement 'reinstated genuine non-locality' \u2014 entangled measurement correlations are non-local in the strict (Bell) sense.", "reason": "Quantum entanglement 'reinstated genuine non-locality' \u2014 entangled measurement correlations are non-local in the strict (Bell) sense. non_locality is the more-general parent. Additive: entanglement keeps coupling;dependency. Non-Locality supplies the genus: Distant elements influence or correlate with each other without a chain of contiguous intervening contact \u2014 coupling that jumps the substrate rather than propagating through neighbors. Entanglement preserves that general structure while adding its differentia: Linked distant states. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "enthymeme": [ { "child": "enthymeme", "parent": "assumption", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "A load-bearing premise supplied from the audience's assumption base is a constitutive part of an enthymeme.", "reason": "The emitted fragment reaches its conclusion only when the receiver inserts the unstated premise; remove that assumption and the rhetorical syllogism is incomplete rather than merely concise." } ], "environmental_coupling_strength": [ { "child": "environmental_coupling_strength", "parent": "scale", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Environmental Coupling Strength is a kind of scale: it quantifies the band of interaction rate at which system and environment must be co-described.", "reason": "Environmental coupling strength quantifies the rate at which energy, information, or material flows across a system boundary, with strong coupling forcing joint description of system plus environment and weak coupling licensing isolated description. That is a Scale claim \u2014 the level of aggregation or resolution at which the system can be coherently described depends on the coupling magnitude, with qualitative changes in the appropriate ontology across the band. The prime specializes scale to the dimension of system-environment interaction rate." }, { "child": "environmental_coupling_strength", "parent": "boundary", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Environmental Coupling Strength presupposes Boundary: the coupling is defined as the cross-boundary flow rate between system and environment.", "reason": "Environmental coupling strength quantifies flow across the demarcation between system and environment, with permeability of that demarcation setting how strongly the two interact. The very concept of crossing \u2014 of flow across a separation \u2014 requires a Boundary already drawn that establishes inside, outside, and the rule governing transit. Without a boundary there is no surface across which coupling could be measured. Environmental coupling strength presupposes boundary as the demarcation whose permeability it characterizes." }, { "child": "environmental_coupling_strength", "parent": "coupling", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Environmental coupling strength presupposes coupling because it is the quantified intensity of one specific coupling relationship between a system and its environment.", "reason": "Environmental coupling strength presupposes coupling because it quantifies the intensity of one designated coupling relationship: the rate at which energy, information, or material crosses the boundary between a system and its environment. Without the prior availability of coupling as a dynamic link by which state in one subsystem becomes input to another, there is nothing for a strength parameter to grade. Coupling supplies the general interaction structure; environmental coupling strength fixes one specific instance of it and reads its magnitude." } ], "environmental_scanning": [ { "child": "environmental_scanning", "parent": "foresight", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Environmental scanning is a specific foresight practice that continuously monitors external factor categories for strategically relevant changes.", "reason": "Environmental scanning is a specialization of foresight whose distinctive move is a continuous, organized monitoring function partitioning the external environment into bounded categories \u2014 social, technological, economic, environmental, political, legal \u2014 with explicit sources, cadence, and ownership. It inherits foresight's commitment to structured anticipation that turns the future into an object of disciplined inquiry, and adds the operational architecture of a named, ongoing organizational sensing function rather than ad-hoc awareness, supplying the monitoring layer of the broader foresight methods stack." }, { "child": "environmental_scanning", "parent": "monitoring", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Environmental scanning is a specialization of monitoring in which the observed system is the organization's external environment.", "reason": "Environmental scanning is a specialization of monitoring in which the observed system is the organization's external environment \u2014 social, technological, economic, political, legal factors \u2014 and the function is to detect relevant changes, emerging trends, and threats that may affect strategy. It inherits monitoring's general structure of continuous observation, threshold comparison, and triggered response, and specializes by fixing the observed domain to outside-the-firm conditions, by partitioning the environment into bounded categories for tractability, and by tying the alerting logic to strategic-planning implications rather than to operational deviation from a setpoint." } ], "epistemic_action": [ { "child": "epistemic_action", "parent": "cognitive_offloading", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Epistemic action is cognitive offloading specialized to manipulating the environment so it performs or exposes part of the next computation.", "reason": "It trades capacity-bounded internal work for an external configuration and retrieval coupling, adding the differentia that the physical action serves cognition rather than directly advancing the task goal." } ], "epistemic_humility": [ { "child": "epistemic_humility", "parent": "calibration", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Epistemic humility is the specific shape calibration takes when confidence is aligned to the actual evidential warrant behind a claim.", "reason": "Epistemic humility is the structurally-particularized form calibration takes in the epistemic case: the system's output is expressed confidence in claims, the trusted external standard is evidential warrant, and the adjustment is the disciplined practice of matching expressed certainty to evidential strength. It inherits calibration's alignment-to-reference apparatus \u2014 measure deviation, adjust toward standard \u2014 particularized by the metacognitive case where the standard is what one can warrant and the adjustment is acknowledgment of gaps." }, { "child": "epistemic_humility", "parent": "metacognition", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Epistemic humility presupposes metacognition because calibrating confidence requires second-order representation and evaluation of one's own knowledge.", "reason": "Epistemic humility presupposes metacognition because its disciplined matching of confidence to evidential warrant operates as a second-order judgment about one's own cognitive states \u2014 \"do I actually know this?\" \"is my reasoning warranted?\" It inherits metacognition's commitment to representing, monitoring, evaluating, and regulating one's own cognitive processes, particularized to the epistemic-calibration case where the regulated process is confidence assignment and the quality metric is alignment between expressed and warranted certainty." } ], "epistemic_justice": [ { "child": "epistemic_justice", "parent": "normativity", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Epistemic justice presupposes normativity because it evaluates knowledge practices against standards of correctness and identifies distinctive wrongs.", "reason": "Epistemic justice presupposes normativity because it treats knowing and being-credited-as-a-knower as goods whose distribution can be just or unjust, and identifies specific wrongs \u2014 testimonial and hermeneutical injustice \u2014 in which persons are harmed in their capacity as knowers. The framework requires a prior ought-side: a standard against which credibility allocation and interpretive resource distribution can be judged correct, required, or prohibited. Without normativity's general apparatus of evaluation against a standard, the claim that epistemic practice can be unjust would have no traction; epistemic justice imports that apparatus and applies it specifically to epistemic life." }, { "child": "epistemic_justice", "parent": "fairness", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Epistemic justice presupposes fairness because it identifies specific wrongs in the distribution of credibility and interpretive resources.", "reason": "Epistemic justice presupposes fairness because its central claim \u2014 that epistemic practice can distribute credibility, voice, and interpretive resources justly or unjustly \u2014 requires fairness's prior standard of impartial or principled treatment as the evaluative baseline. Without fairness's general apparatus of judging allocations and procedures against defensible standards of equal regard, the diagnoses of testimonial and hermeneutical injustice would lack their normative footing. Epistemic justice inherits fairness's structure of evaluating distributions for principled differentiation and specializes it to the goods of being-heard and being-rendered-intelligible as a knower." } ], "equilibrium": [ { "child": "equilibrium", "parent": "fixed_point", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "An equilibrium is a state with no net change under the system's update rule \u2014 a fixed point of the dynamics.", "reason": "An equilibrium is a state with no net change under the system's update rule \u2014 a fixed point of the dynamics. Fixed Point supplies the genus: A state a transformation leaves unchanged \u2014 self-consistency under update \u2014 organizing analysis into existence, uniqueness, stability, and basin of attraction. Equilibrium preserves that general structure while adding its differentia: Balanced state. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "equity": [ { "child": "equity", "parent": "discretion", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Equity is Discretion specialized to fairness-guided exceptions and tailored remedies where rigid rule application would produce an inadequate result.", "reason": "Discretion is bounded choice delegated to a situated decision-maker where a rule leaves the outcome underdetermined. Equity instantiates that genus: an authorized agent evaluates the circumstances and selects a remedy within the available space rather than mechanically applying the default rule. Equity adds principled fairness, reasonable exception, and remedy-tailoring when strict application would be unjust or inadequate." }, { "child": "equity", "parent": "fairness", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Equity presupposes fairness because the discretion-based tailoring of remedy to circumstance presupposes fairness as the standard the remedy targets.", "reason": "Equity presupposes fairness because its core operation \u2014 supplementing rigid rule-application with discretion calibrated to particular circumstances \u2014 is justified by the goal of achieving fair outcomes when strict rule-following would produce unfairness. Without fairness's prior standard of impartial or principled treatment, there is no target equity is correcting toward. Equity inherits fairness's evaluative dimension of just treatment and specializes it to cases where rule-bound application diverges from the underlying standard, supplying the procedural device \u2014 case-specific tailoring of remedy \u2014 by which the standard is restored when the general rule falls short." } ], "equivalence_preserving_rewriting": [ { "child": "equivalence_preserving_rewriting", "parent": "transformation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "The MEANING-PRESERVING subclass of transformation: an explicit equivalence relation carves a space of safe moves, plus an orthogonal cost criterion that selects within it.", "reason": "The MEANING-PRESERVING subclass of transformation: an explicit equivalence relation carves a space of safe moves, plus an orthogonal cost criterion that selects within it. 'this prime is the disciplined subclass... preserved under what relation?' Generic transformation may change meaning freely; this constrains it by a named equivalence. Transformation supplies the genus: A rule-governed mapping that restructures an input into a different output, holding certain invariants fixed while altering others. Equivalence-Preserving Rewriting preserves that general structure while adding its differentia: Transforming an object into a behaviourally equivalent but operationally different form under an explicit equivalence relation, then selecting among rewrites by an orthogonal cost criterion. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." }, { "child": "equivalence_preserving_rewriting", "parent": "equivalence_relation", "type": "composition", "flavor": "", "qualifier": "strict", "reason_short": "The rewriting move presupposes and operates under an explicit equivalence relation as a component, but is itself a transformation process, not a relation.", "reason": "The rewriting move presupposes and operates under an explicit equivalence relation as a component, but is itself a transformation process, not a relation. Equivalence Relation supplies the prerequisite condition: Groups elements into equivalence classes. Equivalence-Preserving Rewriting operates against that background: Transforming an object into a behaviourally equivalent but operationally different form under an explicit equivalence relation, then selecting among rewrites by an orthogonal cost criterion. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "equivalence_principle": [ { "child": "equivalence_principle", "parent": "symmetry", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "The equivalence principle is a specific kind of symmetry, the local indistinguishability of gravitational and inertial acceleration.", "reason": "The equivalence principle is a specialization of symmetry. The general pattern is invariance under a specified group of transformations, with the algebraic commitment that the transformation leaves the system unchanged in a specified sense. The equivalence principle instantiates this with the transformation being the choice between an accelerated frame and a free-fall frame in a gravitational field: physics in a sufficiently small region is indistinguishable across the two. The local invariance under frame change is the symmetry; Einstein elevated it to the founding principle of general relativity by deriving spacetime curvature from this exact symmetry requirement." }, { "child": "equivalence_principle", "parent": "frame_of_reference", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "The equivalence principle presupposes frame of reference because its claim is the local indistinguishability of gravitational and inertial acceleration across reference frames.", "reason": "The equivalence principle asserts that within a sufficiently small region of spacetime, the free-fall reference frame renders gravity locally undetectable \u2014 physics reduces to special relativity in that frame. This claim is intelligible only against the prior machinery of frame of reference: chosen coordinate systems relative to which physical quantities are expressed, with transformation rules between frames. Without that substrate, there would be no free-fall frame to single out as locally inertial and no statement of frame-relative indistinguishability. The frame-of-reference prime supplies the coordinate-system structure the equivalence principle operates on." }, { "child": "equivalence_principle", "parent": "invariance", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "The equivalence principle is a specialization of invariance in which physics is preserved under the local choice of a free-fall frame.", "reason": "The equivalence principle is a specialization of invariance in which the preserved feature is the local form of physical law and the family of transformations is the choice of free-fall reference frame within a small region of spacetime. It inherits the general invariance commitment that a named feature remains unchanged under a named family of transformations, and specializes by fixing the preserved feature to special-relativistic physics and the transformations to the local-inertial frames that render gravity undetectable as a force, recast as spacetime curvature." } ], "equivariance": [ { "child": "equivariance", "parent": "invariance", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Equivariance is a kind of invariance: under a coordinated transformation of input and output, the map's structural relation to the group is preserved.", "reason": "Equivariance is the property f(g.x) equals g.f(x), so applying the group action before or after the map gives the same result. The preserved feature is the commutative-square relation between the map and the group action, and it is preserved under the named group of transformations. That is precisely the structure of Invariance, with the preserved feature being relational rather than pointwise. Equivariance specializes invariance to maps whose output transforms in lockstep with the input rather than ignoring the action." }, { "child": "equivariance", "parent": "function_mapping", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Equivariance presupposes Function (Mapping): the equivariance property is asserted of a deterministic map between sets carrying group actions.", "reason": "Equivariance is the relation f(g.x) equals g.f(x), which only makes sense when f is a deterministic rule that assigns each domain element exactly one image \u2014 the defining commitment of a Function. Without single-valued dependency between input and output, the equation has no settled meaning and the commutative-square claim cannot be tested. Equivariance therefore presupposes Function as the underlying mathematical object on which the group-action commutation property is imposed." }, { "child": "equivariance", "parent": "symmetry", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Equivariance is a specialization of symmetry that requires the map to commute with the group action rather than be fixed by it.", "reason": "Equivariance is a specialization of symmetry. Specifically, it instantiates the transformation-group structure by tying two group actions -- one on the input, one on the output -- through a map satisfying f(g.x) = g.f(x). Like every symmetry claim, it specifies a group of transformations and how the system responds; equivariance is the subclass where the response is to transform-in-lockstep rather than to remain fixed (which would be invariance). The map respects the symmetry without being annihilated by it." } ], "equivocation": [ { "child": "equivocation", "parent": "polysemy", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Equivocation is the dynamic ERROR of using two of a token's senses across a fixity-presuming chain; polysemy (the static multiplicity of senses) is the precondition it exploits.", "reason": "Equivocation is the dynamic ERROR of using two of a token's senses across a fixity-presuming chain; polysemy (the static multiplicity of senses) is the precondition it exploits. polysemy is 'necessary for equivocation but not sufficient'. Polysemy supplies the prerequisite condition: Multiple meanings. Equivocation operates against that background: A single token is used with two distinct referents at two points in a chain that presumes meaning-fixity, so an apparently sound inference silently fails. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "error_proofing_poka_yoke": [ { "child": "error_proofing_poka_yoke", "parent": "constraint", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Error Proofing is a kind of constraint: the system is designed so that error states are physically inadmissible or immediately detected.", "reason": "Error proofing engineers the system so that mistaken configurations are made physically impossible to enter or immediately conspicuous when entered, shifting prevention from human vigilance into structure. The design imposes binding restrictions on the admissible set: error states are excluded a priori rather than discouraged. That is the defining structure of a Constraint. Poka-Yoke specializes constraint to operator-error prevention, with the feasibility test embodied in jigs, fixtures, fits, and forcing functions rather than in policy." }, { "child": "error_proofing_poka_yoke", "parent": "fail_safe", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Error proofing is a specialization of fail-safe in which the safe default is achieved by making the unsafe input physically impossible or immediately obvious.", "reason": "Error proofing is a specialization of fail-safe in which the safe-default discipline is applied specifically at the human-action interface: the system is designed so that a mistaken input is either blocked at the source or unmissable when made. It inherits the general fail-safe commitment that failures will occur and that the post-failure state should be the least harmful available, and specializes by locating the failure mode at human error and engineering the constraint to shift the burden from vigilance to design." }, { "child": "error_proofing_poka_yoke", "parent": "designed_out_misuse", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Poka-yoke is the SPECIAL CASE scoped to ACCIDENTAL error by a well-intentioned operator; designed_out_misuse is the general asymmetric-affordance move that is actor-state-independent (works against indifferent or hostile actors too).", "reason": "Poka-yoke is the SPECIAL CASE scoped to ACCIDENTAL error by a well-intentioned operator; designed_out_misuse is the general asymmetric-affordance move that is actor-state-independent (works against indifferent or hostile actors too). 'poka-yoke is best understood as the special case of designed-out misuse scoped to accidental error'. Add designed_out_misuse as a parent. Designed-Out Misuse supplies the genus: Affordances and defaults are arranged so the misuse path is costly or impossible while the legitimate path stays easy, preventing harm before enforcement has to act. Error Proofing (Poka-Yoke) preserves that general structure while adding its differentia: Error prevention. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "escalation_dominance": [ { "child": "escalation_dominance", "parent": "competition", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Escalation dominance is one structural feature of how some adversarial competitions settle \u2014 credible per-rung advantage along an intensity ladder, resolving below the top by backward induction.", "reason": "Escalation dominance is one structural feature of how some adversarial competitions settle \u2014 credible per-rung advantage along an intensity ladder, resolving below the top by backward induction. 'competition is the broad relation; this is one structural feature.'. Competition supplies the genus: Rivalrous pursuit of a scarce prize where one party's gain is another's loss. Escalation Dominance preserves that general structure while adding its differentia: Holding a credible per-rung advantage across a conflict's intensity ladder, so the contest resolves below the top because the disadvantaged party prefers stopping to climbing into a losing position. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "escalation_of_commitment": [ { "child": "escalation_of_commitment", "parent": "decision", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Escalation of commitment presupposes decision because increasing investment in a previously-chosen course requires a prior committed decision to escalate.", "reason": "Escalation of commitment presupposes decision because the pattern of continuing or increasing investment in a previously-chosen course requires a prior committed choice that closed off alternatives and locked in the path now being doubled down on. Without decision's commitment moment \u2014 the collapse of deliberation into a locked-in selection \u2014 there is no prior path to be escalated, no sunk cost to entrap reappraisal, and no original decision-maker whose reputation, self-justification, and accountability pressures drive further investment. Decision supplies the commitment that escalation then reinforces in spite of disconfirming evidence." }, { "child": "escalation_of_commitment", "parent": "sunk_cost_and_irreversible_commitment", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Escalation of Commitment is commonly powered by sunk-cost attachment, but its identity also admits independent reputational, accountability, loss-framing, and organizational drivers.", "reason": "Sunk expenditure is a canonical and frequent substrate for escalation, but it is one component of a broader multi-determinant phenomenon. Self-justification, public responsibility, reputational face-saving, institutional budget inertia, ambiguous delayed returns, or structured continuation incentives can sustain escalation without a strict backward-looking pull from sunk resource magnitude. The relation is therefore typical rather than universal." } ], "escape_and_leakage": [ { "child": "escape_and_leakage", "parent": "containment", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Escape and leakage presupposes containment because exit through unintended pathways only makes sense relative to a defined boundary meant to hold something in.", "reason": "Escape and leakage presupposes containment because the very notion of unintended exit requires a prior boundary across which exit is supposed to be blocked. Containment supplies the bounded perimeter and the integrity discipline against which any departure registers as a failure mode; leakage then names what happens when seams, latent pathways, or layered defenses are penetrated. Without the prior commitment to drawing and maintaining a boundary, there is no pathway-against-design for the Swiss-cheese geometry of escape to expose." }, { "child": "escape_and_leakage", "parent": "fault_tolerance", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Escape and leakage presupposes fault tolerance because its underlying \"Swiss-cheese\" geometry treats leakage as latent failure paths penetrating layered defenses.", "reason": "Escape and leakage presupposes fault tolerance because its diagnostic frame is exactly the one fault tolerance establishes: components and defenses are imperfect, multiple layers of protection are arranged so individual failures do not produce system-level failure, and the structural concern is whether aligned latent failure paths penetrate the layered defenses. Without the prior commitment that systems are designed under the assumption of imperfect components and adverse conditions, leakage as latent-path penetration has no architectural setting in which to register as a tolerated-or-tolerated-no-more event." }, { "child": "escape_and_leakage", "parent": "permeability", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "'leakage is one failure mode (wrong-carrier over-permeability), not the whole pattern'; permeability is the general graded-crossing property of which escape_and_leakage is one corner.", "reason": "'leakage is one failure mode (wrong-carrier over-permeability), not the whole pattern'; permeability is the general graded-crossing property of which escape_and_leakage is one corner. permeability is the parent. Permeability supplies the genus: A bounded medium selectively passes some carrier through connected pathways. Escape and Leakage preserves that general structure while adding its differentia: Constrained quantities exit through unintended pathways. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "essentialism": [ { "child": "essentialism", "parent": "ontology", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Essentialism presupposes ontology because its claims about essences are first-order commitments about what entities and kinds exist and how they are individuated.", "reason": "Essentialism presupposes ontology because the thesis that entities possess defining essences making them what they are is itself a claim within the ontological framework \u2014 about which categories are basic, what individuates members of a kind, and what grounds kind-membership across instances. Without the prior apparatus of inventorying basic entity types, supplying identity criteria, and articulating dependency relations, essentialism's modal claim about necessarily-possessed properties has no scaffolding to attach to. Essentialism is a particular ontological stance: it fills in the identity-and-kind-membership slots that ontology leaves open." }, { "child": "essentialism", "parent": "reification", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Essentialism is reification applied specifically to CATEGORIES (a taxonomy treated as a natural kind); reification generalizes the move across scores, dashboards, maps, models.", "reason": "Essentialism is reification applied specifically to CATEGORIES (a taxonomy treated as a natural kind); reification generalizes the move across scores, dashboards, maps, models. essentialism is the categorical species. Add reification as a parent. Reification supplies the genus: An abstraction designed to summarise a substrate is treated as the substrate itself, with the audit trail back to the original allowed to atrophy. Essentialism preserves that general structure while adding its differentia: Inherent defining properties. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "ethnocentrism": [ { "child": "ethnocentrism", "parent": "markedness", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Ethnocentrism is the specific shape markedness takes when one's own culture operates as the unmarked default against which others appear as marked deviations.", "reason": "Markedness names the asymmetric structure in which one member of an opposition functions as the unmarked baseline while the other is the marked specified case. Ethnocentrism is the specific shape this pattern takes in the cultural-perception domain: the observer's home cultural framework occupies the unmarked default slot \u2014 pre-reflective, treated as normal \u2014 while other cultures are processed as marked deviations to be explained, evaluated, or corrected. It is a structurally-particularized instance of marked-unmarked asymmetry whose two terms are one's own culture and all others." }, { "child": "ethnocentrism", "parent": "social_identity_theory", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Ethnocentrism presupposes social identity theory because the home-frame centering requires prior identification with a cultural in-group.", "reason": "Ethnocentrism is the structural condition in which an observer's own cultural framework operates as the unmarked default against which other cultures are perceived as deviations. The whole construction presupposes that the observer has identified with the home culture as an in-group from which a portion of self-concept is derived. Social identity theory supplies exactly that mechanism: people categorize themselves into social groups and bind self-concept to those category memberships. Ethnocentrism is then the outward-judgment consequence that follows when the identified-with culture serves as the cognitive baseline, presupposing social identification as its precondition." } ], "eutrophication": [ { "child": "eutrophication", "parent": "overshoot_and_collapse", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "DEMOTED domain-specific prime (batch_02 record) whose relocation parent this is: the limnology instance of beneficial-input inversion and hysteretic lock-in.", "reason": "DEMOTED domain-specific prime (batch_02 record) whose relocation parent this is: the limnology instance of beneficial-input inversion and hysteretic lock-in. names eutrophication as its canonical case and relocation target. Overshoot and Collapse supplies the genus: An enabling input that is beneficial at low levels crosses an assimilation ceiling and inverts into a self-amplifying degrading load, depleting a secondary resource and locking in a hysteretic worse regime that does not reverse when the input is removed. Eutrophication preserves that general structure while adding its differentia: An enabling input crosses an assimilation ceiling and inverts into a degrading load, driving a self-amplifying bloom that depletes a secondary resource and locks in a worse regime. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "evaluation": [ { "child": "evaluation", "parent": "comparison", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Evaluation presupposes Comparison because judging an object requires placing its relevant features and a criterion or reference in a shared frame.", "reason": "Comparison supplies the relation-reading operation inside every evaluation: the object's relevant feature is co-framed with a threshold, prototype, alternative, rule, purpose, or other criterion so that a relation can be read. Evaluation adds the purpose-relative criterion and an output that counts as a verdict, score, rank, grade, priority, or action-guiding judgment. A comparison can remain descriptive; an evaluation cannot omit the criterion-bearing use." } ], "evaluative_rating": [ { "child": "evaluative_rating", "parent": "classification", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "A rating is an ORDERED classification in which the order, not the category label, does the load-bearing work \u2014 classification PLUS a fixed ordered scale and rater and designed use and compression.", "reason": "A rating is an ORDERED classification in which the order, not the category label, does the load-bearing work \u2014 classification PLUS a fixed ordered scale and rater and designed use and compression. A specialization of classification along the order axis. Classification supplies the genus: Sorting entities into discrete categories by explicit rules, turning unbounded variation into a finite, reusable map for downstream reasoning and action. Evaluative Rating preserves that general structure while adding its differentia: Compress an evaluative judgment into a position on a shared ordered scale that downstream actors can act on without re-examining the evidence. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "event_centered_modeling": [ { "child": "event_centered_modeling", "parent": "representation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Event-centered modeling is representation specialized to schemas in which happenings are primary nodes and entities are derived projections.", "reason": "It inherits selective encoding of a target into a structured medium and adds event primacy, participant-time-place-transformation roles, and an append-only historical spine. Representation supplies the genus: Model complex ideas. Event-Centered Modeling preserves that general structure while adding its differentia: Making events the primary nodes through which entities, places, and periods are connected, so that everything else is derived as a projection of the event log. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "event_lifecycle_phases": [ { "child": "event_lifecycle_phases", "parent": "state_and_state_transition", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Removing hazard-management roles from Event Lifecycle Phases leaves a state-and-transition skeleton with three regimes, onset and termination boundaries, and a return transition from post-event learning to pre-event readiness.", "reason": "Strip hazards, mitigation, emergency response, recovery politics, stakeholders, and phase-specific intervention catalogues. The remaining structure is a determinate state space partitioned into pre-event, event, and post-event conditions, transition relations at onset and termination, and a feedback transition from post-event learning into the next pre-event state. State and State Transition is therefore the portable skeleton being framed, while the child adds normative intervention design and political economy." } ], "eventual_consistency": [ { "child": "eventual_consistency", "parent": "concurrency", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Concurrency raises the reconciliation question; eventual_consistency is 'one discipline for living with the divergence concurrency creates' \u2014 accept uncoordinated concurrent writes, diverge, reconcile by merge.", "reason": "Concurrency raises the reconciliation question; eventual_consistency is 'one discipline for living with the divergence concurrency creates' \u2014 accept uncoordinated concurrent writes, diverge, reconcile by merge. Presupposes concurrency. Concurrency supplies the prerequisite condition: Manage simultaneous processes. Eventual Consistency operates against that background: Distributed copies of shared state are allowed to diverge under local updates, with a deterministic merge guaranteeing they reconverge once updates stop. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "eventual_realisation_of_possibility": [ { "child": "eventual_realisation_of_possibility", "parent": "probability", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Eventual Realisation of Possibility is a specialization of Probability, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Probability supplies the genus: Quantifies uncertainty and likelihoods. Eventual Realisation of Possibility preserves that general structure while adding its differentia: In a system subject to many independent trials, every outcome with non-zero per-trial probability eventually occurs, so design posture shifts from per-trial prevention to containment. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "evidence": [ { "child": "evidence", "parent": "provenance", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Evidence contains provenance as the chain-of-custody relation connecting an underlying event to its observable trace and presentation.", "reason": "The live evidence identity requires a trace-producing mechanism and a traceable path from event to trace to presentation. Provenance is one of its fixed audit handles: a break supplies a defeater. The inherited record's prose already says provenance is a component of evidence but points the edge from component to whole and encodes part_of under decompose." } ], "evidence_fidelity_decay": [ { "child": "evidence_fidelity_decay", "parent": "temporal_decay_and_degradation", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "'a TIME-DEPENDENT loss whose magnitude grows with the event-to-capture delay' \u2014 a specialization of temporal decay applied to an evidentiary record's attribution structure (vs a static bias).", "reason": "'a TIME-DEPENDENT loss whose magnitude grows with the event-to-capture delay' \u2014 a specialization of temporal decay applied to an evidentiary record's attribution structure (vs a static bias). Temporal Decay and Degradation supplies the genus: System properties or capabilities systematically diminish over time. Evidence-Fidelity Decay preserves that general structure while adding its differentia: Delay between event and capture lets backfill silently fuse observation, inference, and reconstruction into one uniform record. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "evolutionarily_stable_strategy": [ { "child": "evolutionarily_stable_strategy", "parent": "equilibrium", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "ESS is a perturbation-survival STABILITY CLASSIFICATION of an equilibrium (Lyapunov-style robustness imported into frequency-dependent strategy space) \u2014 a specialization of equilibrium.", "reason": "ESS is a perturbation-survival STABILITY CLASSIFICATION of an equilibrium (Lyapunov-style robustness imported into frequency-dependent strategy space) \u2014 a specialization of equilibrium. 'a stability classification of one [equilibrium], defined by what happens under perturbation'. Equilibrium supplies the genus: Balanced state. Evolutionarily Stable Strategy preserves that general structure while adding its differentia: A population strategy is stable if, once dominant, no rare mutant can invade \u2014 equilibrium defined by what survives perturbation, not by ex-ante agreement. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." }, { "child": "evolutionarily_stable_strategy", "parent": "nash_equilibrium", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Prime explicitly states \"every ESS is Nash, but not every Nash is an ESS - ESS is the strict refinement\" adding a dynamic-stability criterion to Nash.", "reason": "Prime explicitly states \"every ESS is Nash, but not every Nash is an ESS - ESS is the strict refinement\" adding a dynamic-stability criterion to Nash. Nash Equilibrium supplies the genus: A strategy profile in which no agent can improve its payoff by unilaterally changing strategy, given the others' choices \u2014 the fixed point of the joint best-response correspondence. Evolutionarily Stable Strategy preserves that general structure while adding its differentia: A population strategy is stable if, once dominant, no rare mutant can invade \u2014 equilibrium defined by what survives perturbation, not by ex-ante agreement. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "evolutionary_trap": [ { "child": "evolutionary_trap", "parent": "natural_selection", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Evolutionary Trap is typically a specialization of Natural Selection, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Natural Selection supplies the genus: A population of varying, heritable variants is filtered by a selection pressure so that the better-performing variants differentially reproduce or persist, shifting the population's composition over rounds \u2014 variation, selection, and retention as a substrate-neutral engine. Evolutionary Trap preserves that general structure while adding its differentia: An agent follows a once-reliable cue more eagerly the stronger it is, straight into harm, because the environment changed and the cue-value coupling broke while the cue-response did not. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." }, { "child": "evolutionary_trap", "parent": "cue_outcome_decoupling", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Evolutionary trap is cue-outcome decoupling specialized to an environment-driven coupling break outrunning a deeply installed rule's update rate.", "reason": "Both require a cue, a valued but indirect outcome, a historical coupling, a fast cue-response, a slow meaning-update channel, and persistence after the coupling breaks. The child requires the break to come from environmental change and adds the rate mismatch and cost asymmetry that turn stale cue following into a trap." } ], "exaptation": [ { "child": "exaptation", "parent": "transformation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Exaptation is a kind of transformation: a feature shaped for one role is restructured into a new functional role without redesign.", "reason": "Exaptation is the co-option of a feature built or selected for one function \u2014 or for no function at all \u2014 into a new functional role it was not designed for, preserving the underlying structural properties while altering what the feature does. That maps onto the Transformation schema: input restructured according to a rule into an output, with certain properties preserved (the structural substrate) and others altered (the functional role). Exaptation specializes transformation to the functional reassignment of a substrate." }, { "child": "exaptation", "parent": "adaptation", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Exaptation presupposes adaptation because co-opting an existing feature for a new function operates against the background of features shaped by prior adaptive history.", "reason": "Exaptation is the structural pattern in which a feature that arose for one function or for none is later co-opted to serve a different function it was not designed for. The construct is meaningful only against the backdrop of adaptation: the original feature was either selected for its prior role or was a by-product of features that were, and the co-option exploits properties already present from that adaptive history. Adaptation supplies the underlying fit-by-internal-modification mechanism that produced the available structures. Exaptation specializes by distinguishing present-utility-without-fresh-selection from current-role-shaped-by-selection." } ], "excitation_inhibition_balance": [ { "child": "excitation_inhibition_balance", "parent": "balance", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "The specific regime where two large, concurrently-active opposed channels are differenced at every locus to yield a high-gain output \u2014 a specialization of balance (held by co-modulation, not static equilibrium).", "reason": "The specific regime where two large, concurrently-active opposed channels are differenced at every locus to yield a high-gain output \u2014 a specialization of balance (held by co-modulation, not static equilibrium). Balance supplies the genus: Even distribution of elements. Excitation-Inhibition Balance preserves that general structure while adding its differentia: Two opposed channels run concurrently and sum at every locus, so the system's output is the difference of two large quantities \u2014 high-gain, sharply tunable, and catastrophic to lose either side. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "exemplar_retrieval": [ { "child": "exemplar_retrieval", "parent": "search_and_retrieval", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "'sharper than generic search \u2014 the retrieved item becomes the ANSWER TEMPLATE for a new case.' Exemplar retrieval is search put to work as a categorisation architecture; search_and_retrieval is the genus.", "reason": "'sharper than generic search \u2014 the retrieved item becomes the ANSWER TEMPLATE for a new case.' Exemplar retrieval is search put to work as a categorisation architecture; search_and_retrieval is the genus. Search and Retrieval supplies the genus: Locate and extract information. Exemplar Retrieval preserves that general structure while adding its differentia: Answering by reaching for the closest stored case and reusing its response, rather than applying an abstracted rule \u2014 the history itself is the model. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." }, { "child": "exemplar_retrieval", "parent": "associative_memory", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "'the USE of associative_memory as a categorisation architecture.' Presupposes the recall mechanism, adding a similarity metric and reused response.", "reason": "'the USE of associative_memory as a categorisation architecture.' Presupposes the recall mechanism, adding a similarity metric and reused response. Associative Memory supplies the prerequisite condition: Content-addressable storage where a cue retrieves linked content. Exemplar Retrieval operates against that background: Answering by reaching for the closest stored case and reusing its response, rather than applying an abstracted rule \u2014 the history itself is the model. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "expectancy_mediated_outcome": [ { "child": "expectancy_mediated_outcome", "parent": "reflexivity_self_reference", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Expectancy-mediated outcome is reflexivity specialized to a representation that predicts an outcome and causally changes realization of that same outcome.", "reason": "Reflexivity supplies the re-entry of a representation into the represented system. This species fixes that representation to an outcome expectation or learned prediction, requires a response channel, and requires a signable counterfactual change in the target outcome." } ], "expectation_violation": [ { "child": "expectation_violation", "parent": "baseline_deviation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Expectation violation is baseline deviation specialized to an active predictive reference and a registered violation response.", "reason": "Expectation violation is baseline deviation specialized to an active predictive reference and a registered violation response. Both pair a realization with a legible reference and make the departure a first-class result. The reference must be actively predictive, the realization must breach it, and the breach must trigger surprise, reorientation, model revision, or repair." } ], "expected_utility": [ { "child": "expected_utility", "parent": "preference", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Expected utility presupposes preference because probability-weighted aggregation requires a prior utility function ranking outcomes.", "reason": "Expected utility presupposes preference because the operation collapses an uncertain prospect into a single comparable scalar by probability-weighting the utility of each outcome \u2014 and that utility function is the agent's preference ordering over outcomes made cardinal under the von Neumann\u2013Morgenstern axioms. Without preference as the underlying ordering on the choice set, there is no value function to weight, no ranking to maximize, and no meaning to \"prefer the certain over the uncertain.\" Preference supplies the ordering primitive; expected utility supplies the aggregation rule that turns it into choice under risk." }, { "child": "expected_utility", "parent": "expected_value", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Expected utility is expected value specialized to a utility-transformed outcome used to rank risky prospects.", "reason": "Expected utility applies the expectation operator to a utility function rather than to the raw outcome, adding a preference representation and a risky-choice ranking role. Expected value also averages physical, statistical, financial, and computational quantities with no utility or decision frame." } ], "expected_value": [ { "child": "expected_value", "parent": "aggregation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Expected value is aggregation specialized to collapsing a probability distribution by a probability-weighted linear average.", "reason": "Expected value inherits Aggregation's many-to-one collapse and adds a probability measure, a numerical random quantity, and the linear weighting rule that produces the distribution's first moment. Sums, maxima, votes, and medians are aggregations without this differentia." }, { "child": "expected_value", "parent": "probability", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Expected value presupposes a probability measure against which the random quantity can be integrated or summed.", "reason": "Without a probability space and measure there are no coherent outcome weights, no random quantity defined almost everywhere, and no expectation operator to evaluate. Probability is a prerequisite rather than a species of expectation." } ], "experimental_design": [ { "child": "experimental_design", "parent": "comparison", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Experimental design is the specific shape comparison takes when it becomes a controlled, intervention-based architecture for causal inference.", "reason": "Experimental design is the specific shape comparison takes when it becomes an active, intervention-based architecture for causal inference. Comparison's general anatomy \u2014 comparands, shared frame, alignment rule, output relation \u2014 is structurally particularized into treatment and control conditions as comparands, randomization and blocking as the alignment rules that make them commensurable, and an effect estimate as the output. The general operation of placing items under a shared frame is preserved; the specific shape is its principled deployment to isolate causal effects from confounding through assignment under explicit constraints." }, { "child": "experimental_design", "parent": "control_sample", "type": "composition", "flavor": "part_of", "qualifier": "typical", "reason_short": "Experimental Design typically contains a Control Sample as the matched baseline arm whose contrast isolates the tested factor.", "reason": "When a control sample is used, it is an internal comparator in the experimental architecture rather than a whole containing the design. Its match to the focal sample and shared measurement turn their difference into the identifying contrast. The relation is typical because valid designs can use within-subject, factorial, historical, synthetic, or model-based contrasts without a separately designated control sample." } ], "explanatory_overlay_masking_structural_debt": [ { "child": "explanatory_overlay_masking_structural_debt", "parent": "technical_debt", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Explanatory Overlay Masking Structural Debt is a specialization of Technical Debt, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Technical Debt supplies the genus: A present expedient choice imposes a future cost that compounds with system growth until it is paid down, with a principal, an interest payment, and a pay-down. Explanatory Overlay Masking Structural Debt preserves that general structure while adding its differentia: An artefact carrying avoidable structural confusion is patched with an informational overlay that makes it locally readable without retiring the underlying problem, and the overlay's local sufficiency quietly crowds out the structural fix that would actually resolve it. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "exponentiation": [ { "child": "exponentiation", "parent": "iteration", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Exponentiation is a specific kind of iteration where repeated multiplication makes each round's increment proportional to the current state.", "reason": "Exponentiation is a specialization of iteration. The general pattern is the repeated application of a step with state carried between rounds and progress measured across rounds. Exponentiation instantiates this with the per-iteration step being multiplication by a fixed factor, so the increment at each step is proportional to the current state rather than to a fixed quantity. This produces the constant-ratio successive values that distinguish exponential growth or decay from linear or polynomial accumulation. Compound interest, radioactive decay, and viral early-outbreak dynamics are the same iterative pattern under different per-step multipliers." }, { "child": "exponentiation", "parent": "recurrence", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Exponentiation presupposes recurrence because repeated multiplication is the iterated application of a constant-ratio rule across steps.", "reason": "Exponentiation presupposes recurrence because b to the n is generated by reapplying multiplication-by-b at each step, exactly the structural recurrence x_{n+1} = b*x_n whose closed form is exponential. The constant-ratio-between-successive-values signature that distinguishes exponential from linear growth is a recurrence relation. Without recurrence's pattern of values reappearing across iterations under an identifiable rule, the per-step proportional growth has no generating structure; exponentiation is the family of solutions to the simplest multiplicative recurrence. Recurrence supplies the prerequisite condition: The property by which a state, event, or value reappears across time or iterations because the present state depends on prior states, distinct from mere repetition by its measurable lag structure. Exponentiation operates against that background: Repeated multiplication scaling. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "exposure_creep": [ { "child": "exposure_creep", "parent": "risk", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Exposure Creep presupposes Risk, whose structure must already obtain for the child mechanism to be meaningful or operational.", "reason": "Risk supplies the prerequisite condition: Exposure to a known distribution of possible outcomes. Exposure Creep operates against that background: Between rare severe shocks, valuable assets accumulate inside a known hazard's impact zone because a quiet history reads as safety, so the next shock's loss is driven by the grown stake rather than by any change in the hazard. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "exposure_distribution_learning": [ { "child": "exposure_distribution_learning", "parent": "learning", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Exposure-distribution learning is Learning specialized to durable frequency-sensitive updates from an encountered observation distribution.", "reason": "The learner's internal state changes through repeated experience and the change persists into later prediction or behavior. The differentia is that the retained state encodes empirical frequencies or regularities of the exposure stream rather than a single association or skill." }, { "child": "exposure_distribution_learning", "parent": "mental_model", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "A retained internal representation of the exposure distribution is a strict constituent of Exposure-Distribution Learning.", "reason": "The mechanism is identified by comparing an agent's post-exposure expectations with the statistics it repeatedly encountered. Without an internal representation that can encode those regularities, there is no model whose calibration can drift toward the exposure distribution." } ], "exposure_pathway": [ { "child": "exposure_pathway", "parent": "risk", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Exposure Pathway typically presupposes Risk, whose structure must already obtain for the child mechanism to be meaningful or operational.", "reason": "Risk supplies the prerequisite condition: Exposure to a known distribution of possible outcomes. Exposure Pathway operates against that background: The chain of links by which a hazard travels from source to vulnerable target, breakable at any link, turning risk into a graph search over severable routes. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "external_analytic_challenge": [ { "child": "external_analytic_challenge", "parent": "feedback", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "External analytic challenge contains feedback because its probes must return to alter or explicitly re-justify the next state of the work.", "reason": "External analytic challenge contains feedback because its probes must return to alter or explicitly re-justify the next state of the work. Cut the challenge-to-response return path and the outsider can comment but cannot correct the work; the structure becomes observation or later judgment rather than pre-commitment challenge. parent_in_child" }, { "child": "external_analytic_challenge", "parent": "reversibility_horizon", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "External analytic challenge presupposes a reversibility horizon because it must land before accumulated commitment makes correction costlier than carrying the work forward.", "reason": "External analytic challenge presupposes a reversibility horizon because it must land before accumulated commitment makes correction costlier than carrying the work forward. If reversal cost does not change with timing, pre-commitment challenge has no structural advantage over post-commitment review and the defining scheduling constraint disappears. External challenge is a review arrangement timed relative to a commitment threshold, not a species of reversibility horizon." }, { "child": "external_analytic_challenge", "parent": "viewpoint", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "External analytic challenge contains viewpoint because the challenger must occupy a station whose access, occlusion, and bias profile differ from the authoring frame.", "reason": "External analytic challenge contains viewpoint because the challenger must occupy a station whose access, occlusion, and bias profile differ from the authoring frame. Remove the differently positioned station and a challenger sharing the same accumulated access and blind spots cannot provide the outside-frame correction the identity requires. parent_in_child" } ], "externality": [ { "child": "externality", "parent": "allocation", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Externality is the specific shape allocation takes when third-party effects of an action are not reflected in the price the decision-maker pays.", "reason": "Allocation is the assignment of a limited supply across competing claimants subject to feasibility, with the question of who or what gets how much as the bare assignment itself. Externality is the particular shape this pattern takes when the assignment fails to incorporate third-party effects: a producer or consumer takes an action whose private cost or benefit diverges from the social cost or benefit, and the market \u2014 absent intervention \u2014 produces an allocation in which the unpriced residue lands on parties not in the transaction. A structurally-particularized instance of allocation whose specific defect is misassignment from unpriced flows." }, { "child": "externality", "parent": "price_mechanism", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Externality presupposes the price mechanism because the externality is defined by what falls outside the price signal that coordinates market exchange.", "reason": "An externality is constituted as the unpriced residue of an economic action \u2014 the consequence to third parties that the market price fails to internalize. Without the price mechanism's role as the scalar signal that aggregates private costs and benefits into the coordinating signal between buyers and sellers, there would be no baseline against which to identify the externality's unpriced character. The externality is intelligible only against the background expectation that prices ought to convey full social cost, which the price-mechanism prime supplies." }, { "child": "externality", "parent": "side_effect", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "'externality is the side-effect pattern given a price-system framing' \u2014 the substrate-specific, priced, third-party instance.", "reason": "'externality is the side-effect pattern given a price-system framing' \u2014 the substrate-specific, priced, third-party instance. side_effect is the substrate-neutral parent; externality keeps its price_mechanism/allocation parents. Side Effect supplies the genus: An action's change to shared state beyond its declared interface. Externality preserves that general structure while adding its differentia: Spillover effects. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "extrapolation_beyond_sampled_regime": [ { "child": "extrapolation_beyond_sampled_regime", "parent": "validation", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Extrapolation beyond a sampled regime presupposes a validation claim whose evidential scope is bounded by the regime on which competence was established.", "reason": "The failure is not merely encountering a novel input. It is carrying a competence claim, calibrated confidence display, or rule validated on one regime into another where that evidence does not reach. Validation supplies the original claim and its legitimate evidential envelope." }, { "child": "extrapolation_beyond_sampled_regime", "parent": "transferability_overclaim", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Extrapolation beyond a sampled regime is Transferability Overclaim specialized to a calibrated apparatus that leaves its validated regime while continuing to display in-regime confidence.", "reason": "Every admitted case carries a locally warranted competence or reliability claim beyond the sampled regime that bounded its evidence. The apparatus continues to present the output and confidence as though those scope conditions still held, creating the parent's reach-versus-warrant gap. Extrapolation adds a calibrated apparatus, an out-of-regime input, a self-blind confidence indicator, and an absent regime-exit detector." } ], "extreme_capture_probability": [ { "child": "extreme_capture_probability", "parent": "probability", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Extreme Capture Probability is a probability law over which rare targets a bounded selection includes.", "reason": "The pattern quantifies uncertainty about intersection between an accessible sample and a distinguished rare-target set. Its central claims \u2014 n/N for one target and the hypergeometric complement for k targets \u2014 require Probability as their formal substrate." } ], "eyes_on_the_street": [ { "child": "eyes_on_the_street", "parent": "monitoring", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Eyes on the street is the specific shape monitoring takes when observation is distributed, incidental, mutually-visible, and parasitic on other activity.", "reason": "Eyes on the street is the specific shape monitoring takes when observation is distributed, incidental, mutually-visible, and parasitic on other activity. 'a subspecies of monitoring with sharply different enabling conditions.'. Monitoring supplies the genus: Continuously observing a system's state to detect deviation from expected behavior and trigger a response, separating genuine signal from routine noise. Eyes On The Street preserves that general structure while adding its differentia: Safety and accountability produced as a byproduct of dense incidental observation by embedded participants, conditional on shared space, mutual visibility, and a low-cost intervention pathway. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "fabula_and_syuzhet": [ { "child": "fabula_and_syuzhet", "parent": "narrative", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Fabula and Syuzhet usually presupposes Narrative because the distinction originated as a way to separate a story's event chronology from its order of presentation, but the separation can transfer to non-narrative ordered representations.", "reason": "Narrative supplies the canonical object in which fabula and syuzhet was identified: connected events can be reconstructed into an underlying chronology while being encountered in a deliberately chosen order. Yet the prime's portable structure is the separation between an underlying event order and an order of presentation, which can also organize logs, interfaces, curricula, and technical explanations that are not narratives in the stronger story-like sense. Narrative is therefore a typical enabling context rather than a universal containing whole." }, { "child": "fabula_and_syuzhet", "parent": "form_and_content", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Fabula (content/what) and syuzhet (form/how presented) is a specific instance of the form-content duality applied to narrative temporal sequencing.", "reason": "Fabula (content/what) and syuzhet (form/how presented) is a specific instance of the form-content duality applied to narrative temporal sequencing. Form and Content supplies the genus: The relationship between a work's structure and its substance. Fabula And Syuzhet preserves that general structure while adding its differentia: The chronology of events and the order in which they are told are separable design objects, each optimizable for its own criterion. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "fact_value_distinction": [ { "child": "fact_value_distinction", "parent": "normativity", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Fact-Value Distinction contains Normativity because one side of the distinction must consist of genuinely evaluative, reason-giving, or ought-bearing content.", "reason": "Normativity supplies standards, reasons, permissions, prohibitions, and other ought-bearing claims. Remove that content and the fact-value distinction collapses into a classification among descriptive claim types; the child adds the descriptive contrast and the bridge discipline governing movement between the two." } ], "factorial_design": [ { "child": "factorial_design", "parent": "decomposition", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Factorial Design is the specific shape decomposition takes when an experiment is structured into factors with main effects and interactions.", "reason": "A factorial design varies multiple factors simultaneously at multiple levels in a single integrated experiment, exposing each factor's main effect and the interactions between factors. The whole experiment is broken into a structured set of parts \u2014 factors and their level combinations \u2014 that, properly combined, reconstitute the full design and license clean attribution of variation. That is the move of Decomposition, here specifically shaped as a multi-factor cross-classification that exposes both additive contributions and interaction structure invisible to one-factor-at-a-time designs." }, { "child": "factorial_design", "parent": "experimental_design", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Factorial design is the specific shape experimental design takes when multiple factors are varied simultaneously to reveal main effects and interactions.", "reason": "Factorial design is the particular form experimental design takes when several factors are crossed within one integrated experiment rather than varied one-at-a-time. The structure observes every combination (or a balanced subset) of factor levels, which both estimates main effects efficiently and reveals interactions \u2014 effects that depend on other factors' levels \u2014 that no single-factor design can detect. The general architecture of principled comparison under randomization is specialized here to multi-factor combinatorial assignment, trading one-at-a-time intuition for combinatorial efficiency and interaction-detection." }, { "child": "factorial_design", "parent": "cartesian_product", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Factorial Design is a specialization of Cartesian Product, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Cartesian Product supplies the genus: All combinations of independent dimensions, one choice per axis. Factorial Design preserves that general structure while adding its differentia: Multiple variables tested together. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "factorization": [ { "child": "factorization", "parent": "decomposition", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "'Not generic decomposition \u2014 factorization adds a hard constraint decomposition lacks': the parts must be same-type and recombine under a NATIVE binary operation under which the kind is closed, recovering the original exactly.", "reason": "'Not generic decomposition \u2014 factorization adds a hard constraint decomposition lacks': the parts must be same-type and recombine under a NATIVE binary operation under which the kind is closed, recovering the original exactly. A specialization of decomposition (any split). Decomposition supplies the genus: Breaking a whole into parts that can be analyzed independently and recombined to reconstitute the whole, making complexity tractable through divide-and-conquer. Factorization preserves that general structure while adding its differentia: Expressing one object as a product of same-type factors under its native operation. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "fail_safe": [ { "child": "fail_safe", "parent": "reversibility_and_irreversibility", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Fail-Safe presupposes Reversibility and Irreversibility: design must classify which post-failure states are safe to settle into and which must be avoided.", "reason": "Fail-Safe arranges the system so that its default post-failure state is the least harmful available \u2014 gates default closed, brakes default engaged, valves default safe \u2014 rather than devolving into an uncontrolled state. Choosing such a default requires weighing which transitions are reversible (and so tolerable as a halt state) against which are irreversible (and so must be avoided). That is the apparatus of Reversibility and Irreversibility. Fail-Safe presupposes the reversibility distinction to identify which failure state to engineer toward." }, { "child": "fail_safe", "parent": "fault_tolerance", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Fail-safe is a specialization of fault tolerance in which continued service is sacrificed and the post-failure default state is engineered to be the least harmful.", "reason": "Fail-safe is a specialization of fault tolerance in which the response to failure is to drop into a pre-engineered least-harmful state rather than to continue providing service through redundancy or failover. It inherits the general fault-tolerance commitment that components will fail and that the system must be designed so individual failures do not cascade into system-level catastrophe, and specializes by fixing the strategy to safe-default-on-failure (brakes engage when power is lost, valves close when signal is lost) rather than to continued operational availability." } ], "failure_mode_and_effects_analysis_fmea": [ { "child": "failure_mode_and_effects_analysis_fmea", "parent": "risk", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "FMEA ranks prospective failure modes by risk-bearing consequences and likelihood or detectability dimensions.", "reason": "FMEA ranks prospective failure modes by risk-bearing consequences and likelihood or detectability dimensions. Risk supplies the prerequisite condition: Exposure to a known distribution of possible outcomes. Failure Mode and Effects Analysis (FMEA) operates against that background: Identify failure modes. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." }, { "child": "failure_mode_and_effects_analysis_fmea", "parent": "decomposition", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "FMEA decomposes a system or process into distinct failure modes, causes, local effects, and downstream effects for separate evaluation.", "reason": "FMEA decomposes a system or process into distinct failure modes, causes, local effects, and downstream effects for separate evaluation. After the engineering_design frame is stripped away, the retained structural roles are those of Decomposition: Breaking a whole into parts that can be analyzed independently and recombined to reconstitute the whole, making complexity tractable through divide-and-conquer. Failure Mode and Effects Analysis (FMEA) adds the local frame and commitments expressed in its identity: Identify failure modes. The parent pattern remains recognizable without that vocabulary, while the child is the framed realization of it. That preservation test establishes decomposition rather than taxonomic subsumption." } ], "fairness": [ { "child": "fairness", "parent": "impartiality", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Fairness presupposes impartiality because any defensible standard of fair treatment requires that identity-irrelevant features not systematically move outcomes.", "reason": "Fairness evaluates whether an allocation, procedure, or treatment respects equal regard and principled differentiation. Whatever fairness criterion is selected \u2014 equal shares, desert, need, or capability \u2014 it cannot count as fair if the outcome systematically depends on the identity of the party rather than on relevant features of the case. Impartiality supplies that baseline structural requirement: invariance under identity permutation, with like cases treated alike. Fairness then builds on impartiality by specifying which features count as relevant and how they should weight outcomes." } ], "fallacy_of_misplaced_concreteness": [ { "child": "fallacy_of_misplaced_concreteness", "parent": "reification", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Fallacy Of Misplaced Concreteness is a specialization of Reification, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Reification supplies the genus: An abstraction designed to summarise a substrate is treated as the substrate itself, with the audit trail back to the original allowed to atrophy. Fallacy Of Misplaced Concreteness preserves that general structure while adding its differentia: Mistaking an abstraction \u2014 a model, statistic, or construct \u2014 for a concrete thing, then applying interventions licensed only for the particulars to the reified stand-in. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "fallback_path": [ { "child": "fallback_path", "parent": "functional_redundancy_degeneracy", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Fallback Path is the ordered primary-secondary species of diverse pathways that can realize the same minimum function.", "reason": "Fallback Path is the ordered primary-secondary species of diverse pathways that can realize the same minimum function. At least two non-identical pathways can each deliver the specified minimum function, so loss or inadequacy of one need not eliminate it. One path is preferred, another is secondary, and an explicit failure or insufficiency condition governs the handoff." }, { "child": "fallback_path", "parent": "contextual_mode_switching", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Fallback is context-triggered switching among maintained operating routes with failure or insufficiency as the cue and priority ordering as its differentia.", "reason": "Fallback is context-triggered switching among maintained operating routes with failure or insufficiency as the cue and priority ordering as its differentia. A controller detects a context condition and selects one maintained mode or route from a discrete repertoire rather than constructing a response anew. The modes are asymmetrically primary and secondary, and the trigger is the primary route's inability to meet a minimum functional requirement." } ], "false_dilemma": [ { "child": "false_dilemma", "parent": "partition", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "False Dilemma presupposes Partition, whose structure must already obtain for the child mechanism to be meaningful or operational.", "reason": "Partition supplies the prerequisite condition: A division of a set into non-overlapping, collectively exhaustive blocks. False Dilemma operates against that background: A partition of a rich option space is presented as exhaustive when it is not, so reasoning proceeds inside cells while real alternatives have been suppressed. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "false_positive_paradox": [ { "child": "false_positive_paradox", "parent": "bayesian_updating", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "The paradox 'is an application of Bayes' rule' \u2014 posterior odds = prior odds x likelihood ratio \u2014 but 'a single, sharp corollary' (low-prior PPV collapse), not the whole machinery.", "reason": "The paradox 'is an application of Bayes' rule' \u2014 posterior odds = prior odds x likelihood ratio \u2014 but 'a single, sharp corollary' (low-prior PPV collapse), not the whole machinery. A specialization of bayesian_updating. Bayesian Updating supplies the genus: Update beliefs with evidence. False Positive Paradox preserves that general structure while adding its differentia: Under a rare base rate, most positive flags are wrong even when the detector is highly accurate. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "falsifiability": [ { "child": "falsifiability", "parent": "unfalsifiability", "type": "mutual", "flavor": "", "qualifier": "strict", "reason_short": "Falsifiability and Unfalsifiability are co-defining complements distinguished by whether a stable claim-defeating observation exists.", "reason": "Each concept fixes the contrast class of the other within empirical claim-evidence relations. Falsifiability requires at least one stable forbidden observation; Unfalsifiability denies that any admissible observation has stable claim-defeating force. Neither is a subtype or component of the other, so the relation is strict and mutual." } ], "fault_tolerance": [ { "child": "fault_tolerance", "parent": "reserve", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Fault Tolerance presupposes Reserve: continued operation under failures draws on redundancy and capacity held beyond expected need.", "reason": "Fault tolerance keeps systems serviceable when components fail by drawing on redundant components, spare capacity, error-correction overhead, and standby paths designed to absorb failures without service loss. All of those mechanisms are surplus capacity held beyond nominal need, exactly the Reserve pattern \u2014 deliberately maintained slack whose value lies in its availability when expected conditions are exceeded. Fault tolerance presupposes reserve as the substrate that the failover, error-correction, and degradation mechanisms consume when faults strike." }, { "child": "fault_tolerance", "parent": "robustness", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Fault tolerance is a specialization of robustness focused on continued operation specifically under component failures rather than across all perturbations.", "reason": "Fault tolerance specializes robustness by fixing the perturbation class to component failures: hardware breakage, software bugs, network partitions, adversarial corruption. Where robustness names maintained function across a broad envelope of input conditions and disturbances generally, fault tolerance focuses specifically on internal-component failure as the perturbation type, deploying redundancy, monitoring, failover, and graceful degradation as its characteristic mechanisms \u2014 a particular shape robustness takes when the threats targeted are the failures of the system's own constituent parts." } ], "feature_engineering": [ { "child": "feature_engineering", "parent": "representation", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Feature engineering deliberately TRANSFORMS the representation of raw observations so a latent regularity becomes legible to a downstream consumer; it presupposes representation and acts on it.", "reason": "Feature engineering deliberately TRANSFORMS the representation of raw observations so a latent regularity becomes legible to a downstream consumer; it presupposes representation and acts on it. Also leans on transformation." } ], "feedforward": [ { "child": "feedforward", "parent": "representation", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Feedforward contains a predictive representation mapping intended action and disturbance to expected consequence before commitment.", "reason": "Anticipation without an inspectable or encoded surrogate is guessing; the upstream model is the internal constituent that lets predicted consequences modify the action. Representation supplies an internal constituent: Model complex ideas. Feedforward requires that role within this mechanism: A predictive model of an action's consequences is interposed upstream of commitment, so the actor pre-corrects rather than waits for a deviation to feed back. Remove the parent-role and the child loses a required internal operation, even though the parent can exist outside the child. The child is therefore built from the parent rather than being a taxonomic kind of it." } ], "feedforward_inhibition": [ { "child": "feedforward_inhibition", "parent": "inhibition", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Feedforward inhibition is inhibition specialized to the case where the SAME go-signal drives both the activator and a parallel brake (pre-committed, not error-tuned).", "reason": "Feedforward inhibition is inhibition specialized to the case where the SAME go-signal drives both the activator and a parallel brake (pre-committed, not error-tuned). inhibition is the genus (the general external/applied brake on a transformation); this candidate is the same-input parallel-path special case. NOTE inhibition is also a candidate in THIS batch -> a candidate-to-candidate parent edge. Inhibition supplies the genus: An external agent actively slows, blocks, or reduces an otherwise-active transformation by occupying or counteracting the mechanism that would carry it forward. Feedforward Inhibition preserves that general structure while adding its differentia: The same input that activates a downstream element simultaneously recruits a brake on it along a parallel path, so the response is shaped by their difference. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "figure_ground": [ { "child": "figure_ground", "parent": "gestalt_principles", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Figure-Ground is a specialization of Gestalt Principles, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Gestalt Principles supplies the genus: Perceptual grouping rules. Figure-Ground preserves that general structure while adding its differentia: Perceptual organization of a field into salient figure and receding ground. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "first_mover_advantage": [ { "child": "first_mover_advantage", "parent": "opportunity_asymmetry", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Calls opportunity_asymmetry the prime's genus: first-mover advantage is the species where the asymmetry is TEMPORAL and order-indexed (the same move pays differently by its rank in a sequence).", "reason": "Calls opportunity_asymmetry the prime's genus: first-mover advantage is the species where the asymmetry is TEMPORAL and order-indexed (the same move pays differently by its rank in a sequence). opportunity_asymmetry is the parent. Opportunity Asymmetry supplies the genus: Agents possess unequal access to actions and favorable outcomes. First Mover Advantage preserves that general structure while adding its differentia: When a contest rewards early arrival, the same move yields a different return depending on when in the sequence it is taken. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." }, { "child": "first_mover_advantage", "parent": "path_dependence", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "The same move yields a different return by sequence position, locking in early arrivals \u2014 path dependence in a rewarded contest.", "reason": "The same move yields a different return by sequence position, locking in early arrivals \u2014 path dependence in a rewarded contest. Path Dependence supplies the genus: Outcomes are shaped by the specific historical sequence of past choices, which lock in consequences and foreclose alternatives that persist despite present incentives to change. First Mover Advantage preserves that general structure while adding its differentia: When a contest rewards early arrival, the same move yields a different return depending on when in the sequence it is taken. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "fold": [ { "child": "fold", "parent": "transformation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "A fold is transformation specialized to stress-induced bending that changes shape while preserving continuity.", "reason": "The input structure maps to a curved output under load while connectivity is invariant; the hinge, stress regime, and bend-rather-than-break condition supply the child's differentia." } ], "foreseeing_prediction": [ { "child": "foreseeing_prediction", "parent": "inductive_reasoning", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Foreseeing is a specific kind of inductive reasoning, drawing a future-state conclusion from observed patterns whose support strength is calibrated.", "reason": "Foreseeing is a specialization of inductive reasoning. The general pattern is ampliative inference from specific observations to conclusions whose content exceeds what the premises logically guarantee, with quality measured by support strength, calibration, and coverage. Prediction instantiates this with the conclusion being a future state and the premises being the current state plus historical pattern; the predictive model is the inductive bridge, and the calibration loop is precisely the quality test inductive reasoning's framework requires. Prediction carries the characteristic uncertainty of induction because the future may always depart from the observed regularity." }, { "child": "foreseeing_prediction", "parent": "uncertainty", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Foreseeing presupposes uncertainty because predicting a future state requires the incomplete knowledge that makes the future an unknown to be characterized.", "reason": "Foreseeing forms a structured belief about a future state, specifying not just what will happen but the range of plausible outcomes with confidence or probability attached. This presupposes uncertainty: the structural condition of incomplete knowledge about a future state, with the commitment to specify the unknown, the evidence base, and the form of unknowing. The future is the canonical unknown variable; the predictive model is a tool for navigating it; the projected range with attached probability is the uncertainty quantification itself. Without uncertainty's framing of incomplete knowledge as a structured object, prediction collapses into mere assertion." }, { "child": "foreseeing_prediction", "parent": "foresight", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Foreseeing (prediction) is a specialization of foresight that targets specific future-state claims with calibrated uncertainty rather than scenario sets.", "reason": "Foreseeing (prediction) is a specialization of foresight. Specifically, it instantiates the structured-future-anticipation stance in the point-estimate-with-uncertainty mode: an explicit predictive model maps current state and historical pattern to a projected future state with attached confidence, closed by a calibration loop comparing predicted to realized outcomes. Like other foresight methods, it serves present perception and choice under uncertainty; unlike scenario planning, it commits to specific outcome claims with probability rather than mapping a plural space of possibilities." } ], "form_and_content": [ { "child": "form_and_content", "parent": "representation", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Form and content presupposes representation because the dualism separating what is conveyed from how it is structured operates within representational mappings between target and medium.", "reason": "Form and content presupposes representation because the dualism that separates the message from its manner of presentation operates only where a structured mapping from a target onto a medium is in play. Representation supplies the target-medium-faithfulness machinery within which the medium's structure (form) shapes how the target's structure (content) is conveyed. Without representation's mapping, there is no medium whose form could constrain or constitute the received content. The form-content distinction is the explicit acknowledgment that representation's medium-side choices are not inert \u2014 they channel, distort, and partly constitute what the target conveys." } ], "formal_system": [ { "child": "formal_system", "parent": "formalization", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "'Not formalization \u2014 formalization is the PROCESS, a formal_system is the ARTIFACT that process aims at.' The finished four-component package presupposes (is the product of) the formalization process.", "reason": "'Not formalization \u2014 formalization is the PROCESS, a formal_system is the ARTIFACT that process aims at.' The finished four-component package presupposes (is the product of) the formalization process. Formalization supplies the prerequisite condition: Rendering informal practice into explicit, codified, rule-governed form. Formal System operates against that background: Symbols, formation rules, axioms, and inference rules closed under mechanical derivation. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "formal_vs_informal_structures": [ { "child": "formal_vs_informal_structures", "parent": "social_norms", "type": "composition", "flavor": "part_of", "qualifier": "typical", "reason_short": "Social norms commonly form part of the informal layer that interacts with an organization's codified formal structure.", "reason": "Formal-versus-informal structures distinguishes codified roles, procedures, and authority from the emergent practices through which a system also operates. Social norms commonly constitute part of that informal layer by supplying shared behavioral expectations and decentralized sanctions absent from the formal chart. The relation is typical rather than strict because an informal layer can also be organized through personal networks, tacit knowledge, reputation-based influence, or improvised workarounds without a clearly norm-governed component." }, { "child": "formal_vs_informal_structures", "parent": "formalization", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Formal vs informal structures presupposes formalization because the formal layer is by definition the codified, rule-governed counterpart to the informal practice.", "reason": "The formal-versus-informal duality requires that some practices be rendered explicit and codified into rules, charters, and policies \u2014 the very move that formalization names. Without the formalization machinery \u2014 making tacit practice statable, checkable, and transmissible \u2014 there would be no formal layer to contrast with the informal layer; the distinction would collapse into a single tier of uncodified practice. Formalization is the structural operation that produces the formal half of the duality, and is therefore presupposed by the dual structure." } ], "formalization": [ { "child": "formalization", "parent": "representation", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Formalization presupposes representation because making practice explicit requires a medium in which axioms, notation, and rules can stand for the target.", "reason": "Formalization is the move up the explicitness gradient \u2014 replacing tacit know-how with codified notation, axioms, or statutes \u2014 and that move only operates inside a representational medium. To articulate a previously implicit rule one needs symbols, schemas, or formal language that map onto the practice being captured under a faithfulness convention. Representation supplies the structured mapping of target to medium that formalization then sharpens into mechanically operable, audit-checkable form, so formalization cannot get off the ground without a representational substrate already available." }, { "child": "formalization", "parent": "transformation", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Formalization is the specific shape transformation takes when tacit practice is restructured into explicit, codified, rule-governed form.", "reason": "Formalization is the particularization of transformation to the explicitness gradient: the input is tacit, conventional, or intuitive practice; the rule is articulation into notation, axioms, statutes, or schemas; the output is explicit, checkable, transmissible system. Where transformation names structured input-to-output mapping with preserved invariants generally, formalization specifies that the invariant targeted is the substantive content of the practice while the degree of freedom being reshaped is its representational explicitness \u2014 moving up from implicit know-how to codified knowledge." } ], "formative_assessment": [ { "child": "formative_assessment", "parent": "monitoring", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Formative assessment is a kind of monitoring whose continuous evidence-gathering informs in-flight instructional decisions rather than final judgment.", "reason": "Formative assessment is a specialization of monitoring: continuous in-process observation (quizzes, exit tickets, think-pair-share, draft reviews) accumulates evidence about student learning to detect deviation from expected progress and trigger instructional response. It inherits monitoring's commitment to continuous or periodic observation with threshold comparison and corrective action, particularized to the pedagogical case where the monitored variable is learning state and the response is adjustment of teaching strategy rather than final summative judgment." }, { "child": "formative_assessment", "parent": "pedagogy", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Formative assessment is a specific pedagogy that gathers in-process evidence of learning to inform ongoing instructional and learning decisions.", "reason": "Formative assessment is a specialization of pedagogy whose distinctive move is continuous, in-process evidence-gathering whose purpose is to inform teaching and learning decisions during the instructional cycle rather than render a final verdict. It inherits pedagogy's commitment to deliberately structuring the learner's encounter with content for durable capability change, and adds the specific machinery of assessment-for-learning: quick checks, exit tickets, draft reviews, and feedback loops that let the instructional agent adjust sequencing and support based on evidence of where each learner currently stands." }, { "child": "formative_assessment", "parent": "feedback", "type": "composition", "flavor": "", "qualifier": "strict", "reason_short": "Formative assessment implements a measure-compare-act feedback loop routing learning evidence back to instruction.", "reason": "Formative assessment implements a measure-compare-act feedback loop routing learning evidence back to instruction. Feedback supplies the prerequisite condition: Outputs influence inputs. Formative Assessment operates against that background: Ongoing feedback. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "founder_effect": [ { "child": "founder_effect", "parent": "path_dependence", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Founder effect is one specific path-dependence mechanism: a small high-variance initial sample conservatively amplified into durable identity.", "reason": "Founder effect is one specific path-dependence mechanism: a small high-variance initial sample conservatively amplified into durable identity. names path_dependence as its genus; sibling of critical_juncture and lock_in. Path Dependence supplies the genus: Outcomes are shaped by the specific historical sequence of past choices, which lock in consequences and foreclose alternatives that persist despite present incentives to change. Founder Effect preserves that general structure while adding its differentia: A small unrepresentative initial subset starts a new population through a narrow gate, and its idiosyncratic composition is amplified into the descendant's durable identity. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "fractal_geometry": [ { "child": "fractal_geometry", "parent": "recurrence", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Fractal geometry presupposes recurrence because scale-invariant self-similar structure is recurrence operating across scales rather than time.", "reason": "Fractal geometry studies sets whose detail repeats, exactly or statistically, across scales, with non-integer dimension quantifying space-filling roughness. This presupposes recurrence: the structural property by which a pattern, condition, or value reappears across iterations or instances. Self-similarity is recurrence operating along the scale axis rather than the time axis: zooming in reproduces, exactly or statistically, the same form. The recursive generating rules that produce Mandelbrot sets and the statistical scale-invariance of coastlines both rely on the same reappearance-of-pattern structure that recurrence names as foundational." }, { "child": "fractal_geometry", "parent": "self_organization", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Fractal geometry presupposes self-organization because the recursive scale-invariant structures it studies typically arise from local rules without a central designer.", "reason": "Fractal geometry presupposes self-organization because the natural and physical instances it catalogs (coastlines, vascular networks, lungs, large-scale structure, asset-price series) acquire their scale-repeating roughness through local interaction rules under their own dynamics rather than from an externally imposed blueprint. Self-organization supplies the causal architecture by which macro-order emerges from micro-rule; fractal geometry then provides the quantitative vocabulary, especially fractal dimension, for measuring the recursive structure that self-organizing processes characteristically generate across scales." }, { "child": "fractal_geometry", "parent": "scale", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Fractal geometry is the specific shape scale takes when structure repeats across scales and dimension itself becomes non-integer.", "reason": "Fractal geometry is the structurally-particularized instance of scale in which structure does not change qualitatively across scales but instead repeats, exactly or statistically, so that a single scale-invariant description applies across the range. It carries forward scale's general commitment that properties and behaviors vary as size or resolution changes, and gives this idea its specific shape: the change across scales is itself a self-similarity transformation, and the appropriate quantitative measure is a non-integer Hausdorff or box-counting dimension capturing roughness and space-filling capacity." }, { "child": "fractal_geometry", "parent": "scale_invariance", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Fractal Geometry is typically a specialization of Scale Invariance, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Scale Invariance supplies the genus: Behavior unchanged under scaling. Fractal Geometry preserves that general structure while adding its differentia: Self-similar patterns. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "fracture_toughness": [ { "child": "fracture_toughness", "parent": "defect", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Fracture Toughness begins after a localized defect already exists and asks whether the substrate arrests or permits its coupling-mediated spread.", "reason": "This preserves the source's decisive initiation-versus-propagation separation. Defect is not an internal arrest mechanism or a genus of toughness; it is the required damaged initial condition against which the toughness property is defined." }, { "child": "fracture_toughness", "parent": "threshold", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Every Fracture Toughness claim contains a critical defect length, energy, reproduction number, or blast-radius boundary separating arrest from runaway spread.", "reason": "The threshold is an internal decision boundary in the toughness property, not a background assumption. Its coordinates vary by substrate, but below-versus- above reversal of propagation outcome is invariant." } ], "frame_change": [ { "child": "frame_change", "parent": "transformation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Frame Change is Transformation specialized to preserving a referent while substituting the organizing frame that assigns its coordinates or meaning.", "reason": "Frame Change is Transformation specialized to preserving a referent while substituting the organizing frame that assigns its coordinates or meaning. The parent supplies the genus and can occur without the child; the child preserves it while adding commitments the parent does not require." }, { "child": "frame_change", "parent": "frame_of_reference", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "A change of frame requires specifiable old and new frames plus the mapping and invariants by which their assignments can be compared.", "reason": "A change of frame requires specifiable old and new frames plus the mapping and invariants by which their assignments can be compared. The parent can occur independently, but without it the child\u2019s mechanism is undefined, establishing prerequisite dependence." } ], "frame_of_reference": [ { "child": "frame_of_reference", "parent": "viewpoint", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Frame of Reference is typically a specialization of Viewpoint, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "They are siblings, not parent/child. (Listed here only to flag the considered-and-rejected relation.). Viewpoint supplies the genus: A position fixes an access set, an occlusion set, and a bias profile. Frame of Reference preserves that general structure while adding its differentia: Observational perspective. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "frame_problem": [ { "child": "frame_problem", "parent": "invariance", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Facts held unchanged under the current action form a constitutive invariant region of every frame-problem solution.", "reason": "The frame is precisely the set of represented facts licensed to persist under a transformation while only direct effects and relevant ramifications are recomputed. Invariance supplies an internal constituent: Properties unchanged under transformation. Frame Problem requires that role within this mechanism: After a change, the challenge of bounding which facts now need re-derivation and which persist by default, without re-checking everything. Remove the parent-role and the child loses a required internal operation, even though the parent can exist outside the child. The child is therefore built from the parent rather than being a taxonomic kind of it." }, { "child": "frame_problem", "parent": "representation", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "The frame problem presupposes a represented state whose facts can persist, change, or require re-derivation.", "reason": "Without an explicit or implicit world model there is no bounded fact set over which an action's consequences and default persistence can be computed. Representation supplies the prerequisite condition: Model complex ideas. Frame Problem operates against that background: After a change, the challenge of bounding which facts now need re-derivation and which persist by default, without re-checking everything. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "framing": [ { "child": "framing", "parent": "representation", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Framing presupposes representation because configuring a presentation that shapes evaluation requires a representational medium whose features can be configured.", "reason": "Framing is the structural claim that presentational choices \u2014 what is salient, what reference point is used, what vocabulary applies \u2014 systematically shape evaluation even when underlying facts are equivalent. The construct presupposes that there is a presentation in the first place: a structured mapping of target onto medium under conventions, with selected features foregrounded and others dropped. Representation supplies that substrate \u2014 the structured mapping with its faithfulness claim and selection of features. Framing specializes representation by analyzing how the variable choices within that mapping move judgment, exploiting the selection-and-configuration latitude representation always contains." }, { "child": "framing", "parent": "context", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "'a frame is a deliberately set context' \u2014 framing is the chosen/active special case of context.", "reason": "'a frame is a deliberately set context' \u2014 framing is the chosen/active special case of context. Context supplies the genus: Surrounding state that selects which content a fixed focal signal carries. Framing preserves that general structure while adding its differentia: Presentation shapes perception. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "free_riding": [ { "child": "free_riding", "parent": "social_dilemma", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Free riding presupposes social dilemma because exploiting collective provision is the characteristic individually-rational defection in a public-goods dilemma.", "reason": "Free riding presupposes social dilemma because the act it names \u2014 benefiting from a collectively-produced good without contributing proportionately \u2014 is the prototypical defection move in the dilemma's incentive structure: when the good is non-excludable and individual benefit exceeds individual cost-share, withholding contribution is privately dominant while universal withholding leaves everyone worse off. Without the social dilemma's prior conflict between individually rational and collectively optimal action, free riding would not be a structural pathology but merely an accounting irregularity. Free riding instantiates the dilemma in the specific setting of non-excludable goods." } ], "frictionless_benchmark_reasoning": [ { "child": "frictionless_benchmark_reasoning", "parent": "zero_force_null_baseline", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Frictionless Benchmark Reasoning is the Zero-Force Null Baseline subtype whose idealized case yields a sharp invariance, irrelevance, conservation, or efficiency result that becomes the program's coordinate origin.", "reason": "Both retain a deliberately false no-perturbation reference and interpret real departures through separately named forces. Frictionless Benchmark Reasoning adds a theorem-like result\u2014an invariance, irrelevance, conservation, or efficiency claim\u2014and uses that sharp result as the fixed origin for an organized research program. Zero-Force Null Baseline remains broader because its reference may instead yield another exact distribution, level, trajectory, or equilibrium without that invariance-style differentia." } ], "functional_redundancy_degeneracy": [ { "child": "functional_redundancy_degeneracy", "parent": "redundancy", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Functional redundancy is a specialization of redundancy in which the duplicated elements are non-identical pathways that converge on the same function.", "reason": "Functional redundancy specializes redundancy by relaxing the duplicate-component constraint: instead of identical replicas, multiple non-identical mechanisms each suffice for the critical function, so the loss of any one leaves the function intact. Where redundancy names deliberate duplication for fault tolerance with independence of failure as the central design variable generally, functional redundancy specifies that the duplicates are structurally diverse pathways, which both reduces common-mode failures and broadens the operating envelope across conditions where any single mechanism might be impaired." } ], "fundamental_attribution_error": [ { "child": "fundamental_attribution_error", "parent": "bias", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Fundamental attribution error is a specialization of bias in which dispositional explanations are systematically over-weighted relative to situational ones.", "reason": "The fundamental attribution error is a specialization of bias. The general bias pattern is systematic, signed displacement of a process's outputs from a true or fair value, persisting despite more data. The FAE specializes by giving the displacement a specific direction: explanations of others' behavior systematically over-weight dispositional causes and under-weight situational ones, with asymmetric application to self versus other. The same systematic-rather-than-random-displacement logic of bias applies, with dispositional-versus-situational attribution as the specific dimension and observer-actor asymmetry as the specific signature." }, { "child": "fundamental_attribution_error", "parent": "responsibility_attribution", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Fundamental attribution error presupposes responsibility attribution because it names a systematic bias inside the very act of assigning causes to agents.", "reason": "Fundamental attribution error presupposes responsibility attribution because it is defined as a characteristic distortion in how the assignment from outcome to agent is performed: over-weighting dispositional sources and under-weighting situational ones, with an asymmetric self-other pattern. Without the prior operation of mapping observed behavior back onto candidate causes and apportioning credit or blame, there is no assignment for the bias to skew. The error is parasitic on the attribution machinery; it specifies which input weights get systematically miscalibrated when agents perform the directed assignment from effects to responsible sources." } ], "fungibility": [ { "child": "fungibility", "parent": "equivalence_relation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Fungibility is the APPLIED equivalence-class claim: within a class individuation drops out of every downstream computation (balance, not inventory).", "reason": "Fungibility is the APPLIED equivalence-class claim: within a class individuation drops out of every downstream computation (balance, not inventory). It is an equivalence_relation plus losslessness + identity-erasure." }, { "child": "fungibility", "parent": "substitutability", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Calls fungibility 'a strict, symmetric strengthening of substitutability' \u2014 the lossless, symmetric, any-for-any case.", "reason": "Calls fungibility 'a strict, symmetric strengthening of substitutability' \u2014 the lossless, symmetric, any-for-any case. Substitutability supplies the genus: One component replaces another without functional degradation. Fungibility preserves that general structure while adding its differentia: Any unit of a class substitutes for any other without loss, erasing individual identity in favor of type and quantity. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "funnel_analysis": [ { "child": "funnel_analysis", "parent": "pipeline", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Funnel analysis presupposes an ordered pipeline whose stage boundaries let entrants, exits, and conditional survival be attributed to particular transitions.", "reason": "Per-stage attrition is meaningful only when a population moves through a defined sequence with countable entry and exit at each boundary. Pipeline supplies that ordered stage structure; Funnel Analysis supplies the diagnostic accounting that localizes loss and identifies the binding stage." } ], "future_or_promise": [ { "child": "future_or_promise", "parent": "state_and_state_transition", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "'Not state_and_state_transition in general \u2014 a future has a CONSTRAINED state machine': a single irreversible transition pending -> fulfilled|rejected.", "reason": "'Not state_and_state_transition in general \u2014 a future has a CONSTRAINED state machine': a single irreversible transition pending -> fulfilled|rejected. A specialization of state_and_state_transition (general machines cycle/revisit). State and State Transition supplies the genus: Captures system condition and evolution. Future Or Promise preserves that general structure while adding its differentia: A first-class placeholder for a value committed to be supplied later. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." }, { "child": "future_or_promise", "parent": "indirection", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "A future/promise is a reified placeholder interposed between consumer and eventual value, matching indirection's definition of an interposed reference decoupling access from binding.", "reason": "A future/promise is a reified placeholder interposed between consumer and eventual value, matching indirection's definition of an interposed reference decoupling access from binding. Indirection supplies the genus: Introduces intermediary references. Future Or Promise preserves that general structure while adding its differentia: A first-class placeholder for a value committed to be supplied later. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "future_wheel": [ { "child": "future_wheel", "parent": "causality", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "A future wheel is the specific shape causality takes when consequences are mapped outward in concentric layers from a triggering event.", "reason": "A future wheel is the specific shape causality takes when the causal relation is unfolded forward as a branching cascade: a triggering event sits at the center, first-order consequences radiate from it, each first-order consequence then generates second- and higher-order consequences in successive concentric layers. It is a structurally-particularized instance of cause-and-effect with productive connection and counterfactual robustness, with the added commitments that the mapping is exhaustive across orders rather than tracing a single chain, the structure is graphical-radial, and the value lies in surfacing indirect higher-order effects that linear analysis misses." } ], "futures_literacy": [ { "child": "futures_literacy", "parent": "modal_reasoning", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Futures literacy is the specific shape modal reasoning takes when the structured space of alternative possibilities is plural possible futures.", "reason": "Futures literacy is the structurally-particularized form modal reasoning takes in the future-anticipation case: the structured space of alternatives is the set of plural possible futures, the modal operators are \"could,\" \"would,\" and \"should,\" and the truth of a futures claim is grounded in the set of accessible scenarios in which an inner proposition holds. It inherits modal reasoning's apparatus of operators quantifying over alternatives, particularized by the reflexive awareness of the anticipatory assumptions shaping each scenario set." }, { "child": "futures_literacy", "parent": "foresight", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Futures literacy presupposes foresight because it is the developed capability to use foresight methods reflexively and well.", "reason": "Futures literacy presupposes foresight because it is defined as the underlying capability that enables effective use of foresight methods \u2014 scenario planning, horizon scanning, backcasting \u2014 along with reflexive awareness of the anticipatory assumptions in play. Without foresight as the object-domain of structured future-anticipation, there is no skill content for the literacy to be literacy in. Foresight supplies the practices, stances, and outputs that futures literacy then becomes capable of deploying critically, distinguishing it from any specific method by being the capability dimension underneath the methods stack." } ], "fuzzing": [ { "child": "fuzzing", "parent": "variation_strategies", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Fuzzing is the generate-broadly-then-select-on-anomalies pattern aimed at falsification: inject controlled (wider-than-designed) variation, watch an oracle, iterate.", "reason": "Fuzzing is the generate-broadly-then-select-on-anomalies pattern aimed at falsification: inject controlled (wider-than-designed) variation, watch an oracle, iterate. A specialization of variation_strategies (deliberately inject variation + select from the results), specialized to surfacing latent failures." } ], "gain_control": [ { "child": "gain_control", "parent": "adaptation", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Gain control is a specific adaptive mechanism: a slow secondary loop measures recent input statistics and retunes the forward path's input-output SLOPE to keep it in range.", "reason": "Gain control is a specific adaptive mechanism: a slow secondary loop measures recent input statistics and retunes the forward path's input-output SLOPE to keep it in range. A specialization of adaptation (system adjusts to conditions). Loosest defensible genus; not feedback (different regulated quantity). Adaptation supplies the genus: Systems adjust to conditions. Gain Control preserves that general structure while adding its differentia: A slow secondary loop continuously retunes the gain of a fast forward signalling pathway so it stays in its useful range across changing input statistics. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." }, { "child": "gain_control", "parent": "homeostasis", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Gain control is homeostatic regulation whose regulated variable is signalling gain, held in useful range by a slow secondary loop.", "reason": "Gain control is homeostatic regulation whose regulated variable is signalling gain, held in useful range by a slow secondary loop. Homeostasis supplies the genus: Maintain internal stability. Gain Control preserves that general structure while adding its differentia: A slow secondary loop continuously retunes the gain of a fast forward signalling pathway so it stays in its useful range across changing input statistics. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "gains_from_trade": [ { "child": "gains_from_trade", "parent": "exchange", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Gains from trade presuppose exchange because the positive-sum surplus only realizes when specialized parties actually transfer outputs to each other.", "reason": "Gains from trade presuppose exchange because the surplus produced by specialization is only realized when the specialized parties transfer their output to each other on mutually agreeable terms. Without exchange's bilateral conditional-transfer structure, specialization yields autarkic stockpiles, not mutual gain. Exchange supplies the substrate on which comparative advantage can be cashed out: parties produce where opportunity cost is lowest precisely because they expect to swap surpluses, and the swap is what converts production differences into the strictly-better consumption possibilities the gains-from-trade claim asserts." }, { "child": "gains_from_trade", "parent": "comparative_advantage", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Gains from trade presupposes comparative advantage because the welfare improvement requires that parties specialize according to their relative opportunity costs.", "reason": "Gains from trade is the positive-sum outcome that arises when parties specialize and exchange, but the welfare improvement depends on the prior structural fact that the parties differ in relative opportunity cost \u2014 comparative advantage. Without the underlying commitment that relative efficiencies determine the welfare-improving specialization pattern, the specialization that generates gains would have no basis: parties with identical opportunity-cost ratios produce no surplus from trade. The comparative-advantage structure is what makes the exchange positive-sum rather than zero-sum." }, { "child": "gains_from_trade", "parent": "opportunity_cost", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Gains from trade presupposes opportunity cost because the relative efficiencies that drive specialization are differences in the value of alternatives foregone.", "reason": "Gains from trade arise from specializing according to comparative advantage, which is itself defined in terms of relative opportunity costs \u2014 the value of the next-best alternative production each party gives up. Without opportunity cost's machinery of valuing alternatives foregone under scarcity, the comparison of parties' relative production capabilities collapses: there would be no metric by which to identify who should specialize in what, and the welfare improvement of exchange would have no basis. Opportunity cost supplies the comparative metric on which gains-from-trade rests." } ], "game_theory_strategy": [ { "child": "game_theory_strategy", "parent": "function_mapping", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "A game-theoretic strategy is the specific shape function takes when the mapping is from observed game history to a chosen action at each information set.", "reason": "A game-theoretic strategy is the specific shape function takes when the input is the player's observed history up to an information set and the output is the action prescribed at that point. It is a structurally-particularized instance of a deterministic single-valued rule from domain to codomain, with the added commitments that the domain is the set of information sets reachable in a fully described game, the codomain is the player's action set at each, and the rule must be specified at every contingency \u2014 including off-equilibrium paths \u2014 because rational analysis requires behavior closed under counterfactual play." } ], "garbage_collection": [ { "child": "garbage_collection", "parent": "network_traversal", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Garbage collection contains a reachability traversal from declared roots to distinguish live resources from reclaimable ones.", "reason": "Root declaration, eligible-reference walking, and visited-state marking are constitutive parts of reachability-bounded garbage collection; the traversal exposes the live set before the unreachable complement can be reclaimed." } ], "garbage_in_garbage_out": [ { "child": "garbage_in_garbage_out", "parent": "transformation", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "GIGO is a quality-MONOTONICITY constraint on a transformation (fidelity to ground truth cannot rise across a single-input map \u2014 the data-processing inequality); it presupposes the transformation whose output quality it bounds.", "reason": "GIGO is a quality-MONOTONICITY constraint on a transformation (fidelity to ground truth cannot rise across a single-input map \u2014 the data-processing inequality); it presupposes the transformation whose output quality it bounds. transformation is its genus, GIGO 'a constraint on one dimension of it'. Transformation supplies the prerequisite condition: A rule-governed mapping that restructures an input into a different output, holding certain invariants fixed while altering others. Garbage In, Garbage Out operates against that background: The quality of a transformation's output is bounded above by the quality of its inputs; no downstream sophistication can repair defects already present in the input. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "gatekeeping": [ { "child": "gatekeeping", "parent": "selection", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Gatekeeping is selection specialized to a choke point where an arbiter controls passage and the downstream audience cannot directly observe the rejected stream.", "reason": "Gatekeeping inherits Selection's input population, passage basis, differential continuation, admitted output, and excluded complement. It adds a single choke-point topology, an identifiable or accountable arbiter with discretion, asymmetric power over senders, and a downstream audience that sees the admitted stream but not the rejected one. Economic Screening is not the genus: its canonical identity is menu-induced self-revelation by privately informed agents, a mechanism a gate need not use." } ], "gauge_invariance_gauge_symmetry": [ { "child": "gauge_invariance_gauge_symmetry", "parent": "symmetry", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Gauge invariance is a specific kind of symmetry where the invariance is under a group of local transformations of unobservable internal degrees of freedom.", "reason": "Gauge invariance is a specialization of symmetry. The general pattern is invariance of a system under a specified group of transformations: applying the action leaves the system unchanged in a specified sense. Gauge invariance instantiates this with the transformation group acting locally on unobservable internal degrees of freedom (phase, color index, reparameterization), so physical observables correspond to equivalence classes under the action. The structural commitment is precisely symmetry's algebraic claim, with the particular feature that the group action is local and the invariant content is the gauge-equivalence class." }, { "child": "gauge_invariance_gauge_symmetry", "parent": "invariance", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Gauge invariance is a specialization of invariance whose preserved feature is observable physics and whose transformation group is local gauge transformations.", "reason": "Gauge invariance is a specialization of invariance. Specifically, it names the case in which the family of transformations is a local symmetry group acting on unobservable internal degrees of freedom (phase, color, spacetime reparameterization) and the preserved feature is the set of physical observables. Like every invariance claim, it commits jointly to what is preserved and under which operations; gauge invariance is the subclass where the operations form a Lie group acting locally and physical states correspond to entire gauge-equivalence classes rather than individual configurations." } ], "geometric_chronology": [ { "child": "geometric_chronology", "parent": "time", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Geometric chronology presupposes temporal succession because its spatial rules recover an earlier-later relation among events.", "reason": "Superposition, cross-cutting, inclusion, and overprint are meaningful as chronology only relative to time's ordering dimension; geometry supplies evidence for that order but is not itself the temporal relation." } ], "gestalt_principles": [ { "child": "gestalt_principles", "parent": "holism", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Removing the automatic-perception and named-grouping-rule frame from Gestalt principles leaves holism's claim that whole-level relational properties are not recoverable from isolated part properties.", "reason": "Gestalt organization begins with discrete elements but makes the organized whole the primary percept and gives it shape, motion, figurehood, and meaning not present in the elements independently. Holism is the exact substrate-neutral irreducibility core; Gestalt adds a perceiver, a field, automatic parallel grouping rules, and perceptual-economy commitments." } ], "goal_congruence_alignment": [ { "child": "goal_congruence_alignment", "parent": "coordination", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Goal congruence is a specialization of coordination in which the aligned elements are the objectives, incentives, and metrics of separate units.", "reason": "Goal congruence is a specialization of coordination in which the elements being aligned are not actions in real time but the underlying objectives, incentives, metrics, and decision criteria of individuals, teams, and departments. It inherits coordination's general structure of independently controlled actors combining into a coherent collective outcome, and specializes by fixing the alignment target to the objective functions agents pursue. When goals point in mutually reinforcing directions, local optimization contributes to global success; when they diverge, agents coordinate locally but produce collective failure \u2014 so goal alignment is the upstream condition that makes downstream coordination productive." } ], "goal_shielding": [ { "child": "goal_shielding", "parent": "attention", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "'attention is the broad allocation of a scarce processing resource; goal shielding is its specifically goal-protective application \u2014 the active denial of that resource to competing goals while one is held.' attention is the genus.", "reason": "'attention is the broad allocation of a scarce processing resource; goal shielding is its specifically goal-protective application \u2014 the active denial of that resource to competing goals while one is held.' attention is the genus. Attention supplies the genus: The selective allocation of a fixed processing capacity to some inputs while the rest are filtered out, surfacing scarcity upstream of every decision. Goal Shielding preserves that general structure while adding its differentia: While pursuing an active goal, suppressing access to competing goals that would compromise it, releasing the suppression only once the active goal ends. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." }, { "child": "goal_shielding", "parent": "open_goal_persistence", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Goal Shielding presupposes Open-Goal Persistence because competitors can be suppressed during pursuit only while one selected goal remains active across the execution interval.", "reason": "Goal Shielding controls rival access around an already selected goal; it does not itself explain why that goal retains active status until completion, abandonment, or swap. Open-Goal Persistence supplies the maintained selection and release event. Shielding adds asymmetric inhibition of alternatives and the interrupt policy governing what can break through." } ], "good_regulator_theorem": [ { "child": "good_regulator_theorem", "parent": "representation", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "The theorem's necessity claim is that every effective regulator contains a behaviorally adequate representation of the system it regulates.", "reason": "The model may be explicit or encoded in policy, weights, rules, or structure, but removing representational correspondence destroys the theorem's invariant. Representation supplies an internal constituent: Model complex ideas. Good Regulator Theorem requires that role within this mechanism: Every effective regulator of a system must be, or must contain, a model of that system. Remove the parent-role and the child loses a required internal operation, even though the parent can exist outside the child. The child is therefore built from the parent rather than being a taxonomic kind of it." } ], "goodharts_law": [ { "child": "goodharts_law", "parent": "proxy_target_divergence", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Goodhart's Law is Proxy-Target Divergence specialized to the mechanism in which binding optimization pressure on the proxy destroys its correlation with the construct.", "reason": "Proxy-Target Divergence is the umbrella for any decoupling between an operational measure and the underlying target. Goodhart's Law fixes the mechanism to a control loop that rewards or penalizes the proxy, causing effort to move into the exploitable proxy-target wedge until the relationship collapses." }, { "child": "goodharts_law", "parent": "intervention_induced_model_invalidation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Goodhart's Law is Intervention-Induced Model Invalidation specialized to a proxy relationship that breaks because the proxy is placed under binding optimization pressure.", "reason": "The proxy's pre-intervention correlation with the construct is an implicit calibrated model. Using that relationship to allocate reward, penalty, or control changes agent behavior toward the cheapest proxy-improving actions, so the relationship no longer transports into the targeted regime. Goodhart specializes the parent with a proxy, construct, exploitable wedge, and metric-directed optimization." } ], "governance": [ { "child": "governance", "parent": "accountability", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Accountability is an internal element of Governance, assigning who must answer for decisions, conduct, and outcomes.", "reason": "Governance is the durable architecture of authority, accountability, and decision rights through which a collective system is steered. Accountability is one internal element: it identifies who must answer for an action or outcome, to whom, and through what review or sanction mechanism. Authority without accountability would allocate power while omitting the answerability structure that Governance explicitly includes." }, { "child": "governance", "parent": "authority", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Authority is an internal element of Governance, distributed and bounded through roles, rules, legitimacy sources, and decision rights.", "reason": "Governance is defined as the durable architecture of authority, accountability, and decision rights. It allocates, channels, limits, and legitimates binding decision power as part of its internal design. Accountability is a separate internal element whose own Authority dependency does not replace this direct constituent relation." } ], "gradual_deterioration": [ { "child": "gradual_deterioration", "parent": "temporal_decay_and_degradation", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Gradual deterioration presupposes temporal decay because incremental accumulation of damage only makes sense against the broader pattern of time-driven degradation.", "reason": "Gradual deterioration is the structural pattern in which small persistent stressors accumulate to erode functional capacity over time. This presupposes the more general pattern of temporal decay and degradation: that system properties systematically diminish through use, exposure, or natural processes following predictable functional forms. Without the underlying time-driven degradation pattern as a frame, the accumulation of microscopic damage below the failure threshold has no destination to converge toward; gradual deterioration is the slow, sub-threshold realization of the broader one-way tendency that temporal decay names." }, { "child": "gradual_deterioration", "parent": "aggregation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Gradual Deterioration is a kind of aggregation: integrated stress accumulates many small damage increments into a single decaying functional capacity.", "reason": "Gradual deterioration is the accumulation of many small, individually-tolerable damage events \u2014 fatigue cycles, corrosion increments, information losses \u2014 into a single trajectory of declining functional capacity. The downstream measurement collapses the granular history into a summary state (remaining strength, residual fidelity, remaining life). That is the move of Aggregation: many items collapsed into a unified form that retains chosen features and suppresses granular detail. Gradual deterioration specializes aggregation to summed micro-damage and its macroscopic functional reading." }, { "child": "gradual_deterioration", "parent": "time", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Gradual Deterioration presupposes Time: incremental decay is by definition the integration of stress over temporal extent.", "reason": "Gradual deterioration is decay accumulated as stress is applied across temporal duration, with the present capacity a function of integrated history. The very content of the prime \u2014 that small persistent stressors below the immediate failure threshold accumulate into substantial decline \u2014 requires Time as the ordered dimension along which the stressors are distributed and the accumulation runs. Without temporal extent there is no integration interval and no gradual pattern; deterioration presupposes time as its supporting dimension." } ], "grand_narrative_metanarrative": [ { "child": "grand_narrative_metanarrative", "parent": "narrative", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "A grand narrative is a specialization of narrative; it is a story-structure scaled up to give a unifying account of history or a whole domain.", "reason": "Narrative is the structural pattern of selecting, sequencing, and causally connecting events into a whole with an interpretive arc. A grand narrative or metanarrative is the specific case where the story is scaled to cover history, society, or a whole domain under a single trajectory or logic \u2014 progress, emancipation, rationalization, salvation. It inherits the basic emplotment machinery of narrative and adds commitments to comprehensive scope, directional teleology, and a legitimating function that organizes many local narratives under a common trajectory." } ], "graph_coloring": [ { "child": "graph_coloring", "parent": "partition", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Graph Coloring is a specialization of Partition, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Partition supplies the genus: A division of a set into non-overlapping, collectively exhaustive blocks. Graph Coloring preserves that general structure while adding its differentia: Conflict-free labeling so that no two items joined by a conflict edge share a label. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "great_man_theory": [ { "child": "great_man_theory", "parent": "responsibility_attribution", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Great Man Theory presupposes responsibility attribution because it concentrates causal credit for historical outcomes onto exceptional individuals.", "reason": "Great Man Theory attributes major historical outcomes to the actions and characteristics of exceptional individuals rather than to structural or sociological forces, treating those individuals as causally efficacious in ways structural accounts cannot reduce. The position is a particular application of responsibility attribution: mapping outcomes back to agents, with counterfactual-dependence as the test. Responsibility attribution supplies the underlying directed-assignment-from-effects-to-sources operation. Great Man Theory specializes it by concentrating the assignment heavily on individual agents and privileging their counterfactual significance over structural variables in the historical case." } ], "greedy_algorithm": [ { "child": "greedy_algorithm", "parent": "heuristic", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "'Not heuristic in general \u2014 greedy is a specific heuristic schema (local-best, irrevocable, no-backtrack) with a sharp optimality theorem (matroids) most heuristics lack.' A specialization of heuristic.", "reason": "'Not heuristic in general \u2014 greedy is a specific heuristic schema (local-best, irrevocable, no-backtrack) with a sharp optimality theorem (matroids) most heuristics lack.' A specialization of heuristic. Heuristic supplies the genus: Mental shortcuts. Greedy Algorithm preserves that general structure while adding its differentia: Committing irrevocably to the locally best choice at each step, with no lookahead. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "green_beard_effect": [ { "child": "green_beard_effect", "parent": "cooperation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Calls cooperation the genus: green-beard is one specific sustaining mechanism within it (a tag-keyed conditional disposition recognized one-shot), distinct from kin selection and reciprocity.", "reason": "Calls cooperation the genus: green-beard is one specific sustaining mechanism within it (a tag-keyed conditional disposition recognized one-shot), distinct from kin selection and reciprocity. cooperation is the parent. Cooperation supplies the genus: Agents bear individual costs to produce a shared benefit. Green-Beard Effect preserves that general structure while adding its differentia: Cooperation is sustained by a single observable marker that is both correlated with the cooperative disposition and recognizable by fellow carriers. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." }, { "child": "green_beard_effect", "parent": "natural_selection", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Green-Beard Effect is typically a specialization of Natural Selection, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Natural Selection supplies the genus: A population of varying, heritable variants is filtered by a selection pressure so that the better-performing variants differentially reproduce or persist, shifting the population's composition over rounds \u2014 variation, selection, and retention as a substrate-neutral engine. Green-Beard Effect preserves that general structure while adding its differentia: Cooperation is sustained by a single observable marker that is both correlated with the cooperative disposition and recognizable by fellow carriers. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "greshams_law": [ { "child": "greshams_law", "parent": "selection", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Gresham's Law is selection specialized to an enforced nominal parity that gives lower-quality goods greater passage through a channel and higher-quality goods greater retention outside it.", "reason": "Gresham's Law contains Selection's eligible population, operative pressure, differential continuation, and shifted output composition. Heterogeneous goods enter a parity-constrained channel; the parity makes holders pass the lower-quality units while retaining, diverting, or converting the higher-quality units, so the circulating population changes. Gresham adds an imposed nominal parity, holder choice, a directional withdrawal-and-concentration result, and re-emergence of the better grade in a channel where quality can be priced. Adverse Selection is a sibling under Selection, not the genus: its differential participation is caused by hidden type rather than an imposed rule." } ], "ground_truth": [ { "child": "ground_truth", "parent": "measurement", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Ground truth presupposes measurement because the designated reference must produce a comparable observation against which another channel can be scored.", "reason": "A reference channel cannot function as ground truth merely by being trusted. It must observe or assign the target in a frame comparable with the system being evaluated. Measurement supplies that value-producing and comparison-ready apparatus; Ground Truth adds the asymmetric authority designation and its known fallibility." } ], "group": [ { "child": "group", "parent": "monoid", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "A Group is exactly a Monoid in which every element additionally has an inverse.", "reason": "Forget the inverse requirement from a Group and its carrier, closed associative operation, and two-sided identity still satisfy every Monoid commitment. Monoid can occur without universal inverses, while Group adds that strict differentia, establishing the non-flattened subsumption chain Group \u2192 Monoid \u2192 Semigroup." } ], "group_cohesion": [ { "child": "group_cohesion", "parent": "boundary", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Cohesion presupposes a Boundary that identifies which elements are bound internally and what fragmentation of the unit would mean.", "reason": "Internal binding is distinguishable from adhesion or external coupling only once a system boundary separates members from nonmembers. The boundary need not be social or cognitively represented; it may delimit a droplet, ecological guild, code module, or team." } ], "groupthink": [ { "child": "groupthink", "parent": "conformity", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Groupthink is the specific shape conformity takes when high cohesion and directive leadership suppress dissent and produce premature consensus.", "reason": "Groupthink is the structurally-particularized form conformity takes under specific antecedent conditions: high cohesion, insulation, directive leadership, member homogeneity, and stress combine to amplify the individual-yields-to-aggregate pull until private information is suppressed and consensus precedes deliberation. It inherits conformity's pattern of individual judgment pulled toward group standard under normative and informational pressure, particularized to the small-group decision-making case where the eight Janis symptoms diagnose the pathology." } ], "habit": [ { "child": "habit", "parent": "automaticity", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "A habit is a specialized automatic regime in which a recurring cue selects a learned action that persists even after its outcome has been devalued.", "reason": "Automaticity supplies low-supervision execution; habit adds a learned cue-action binding and the diagnostic of outcome-devaluation insensitivity, so every habit is automatic but not every automatic process is a habit." }, { "child": "habit", "parent": "conditioning_behavioral", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "A habit is the installed result of (operant) conditioning \u2014 the durable cue-action binding that conditioning writes; it presupposes the conditioning process.", "reason": "A habit is the installed result of (operant) conditioning \u2014 the durable cue-action binding that conditioning writes; it presupposes the conditioning process. Conditioning (Behavioral) supplies the prerequisite condition: Learning via association. Habit operates against that background: A cue-triggered, automatically executed action sequence that persists under outcome devaluation. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "habituation": [ { "child": "habituation", "parent": "tolerance", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Habituation is tolerance specialized to learned, stimulus-specific response decrement that can recover after a pause or reverse under a novel stimulus.", "reason": "Both require repeated or sustained exposure to reduce a capable receiver's response. Habituation adds a history of inconsequential stimulation plus the diagnostic differentia of stimulus specificity, spontaneous recovery, and dishabituation, excluding receptor damage, undifferentiated fatigue, and static insensitivity admitted by the broader response-tolerance family." } ], "habituation_to_repeated_signal": [ { "child": "habituation_to_repeated_signal", "parent": "habituation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Habituation to repeated signal is general habituation specialized to a condition-flagging channel whose false-positive history also degrades the receiver's posterior and creates an ignore equilibrium.", "reason": "Both require repeated exposure to reduce response as a stimulus proves unworthy of its initial recruiting force. The child adds a finite-specificity signal channel, base-rate degradation, rational posterior collapse, and the operator pathology of adding more alarms." } ], "habitus": [ { "child": "habitus", "parent": "implicit_knowledge", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Habitus presupposes implicit knowledge because its durable, transposable dispositions operate pre-reflectively without explicit articulation by the agent.", "reason": "Habitus is the system of durable, transposable dispositions that an individual acquires through sustained social exposure and that operates as the pre-reflective structuring principle of perception, judgment, and action. The dispositions guide behavior without being available for explicit articulation \u2014 agents act as though they know rules they cannot state. Implicit knowledge supplies precisely that structural commitment: knowledge influencing performance without verbal accessibility. Habitus specializes implicit knowledge to socially-acquired class-and-context-specific dispositions, with the social conditions of acquisition as the specific source of the implicit content." }, { "child": "habitus", "parent": "internalization", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Habitus is the specific shape internalization takes when durable social-positional dispositions become the pre-reflective principle of perception and action.", "reason": "Habitus is the specific shape internalization takes when the external item being taken inward is the structuring effect of a social position \u2014 class, family, profession \u2014 and what becomes endogenous is a durable, transposable system of dispositions: perceptual schemes, evaluative categories, bodily comportments. It is a structurally-particularized instance of an external governor crossing into the interior and becoming part of how the agent simply is. The added commitment is that what gets internalized is not a discrete norm but a whole generative grammar of practice, operating beneath reflection across contexts unlike those in which it was acquired." } ], "half_life": [ { "child": "half_life", "parent": "invariance", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Half-Life is a kind of invariance: the time to halve a quantity is preserved across all starting amounts for first-order processes.", "reason": "Half-life is the time required for a first-order decay process to reduce a quantity to half its initial value, with the defining property that this time is constant regardless of the starting amount. The named feature (the halving time) is preserved under the named family of transformations (rescaling of the initial amount). That is precisely a claim of Invariance. Half-life specializes invariance by fixing the preserved feature as the characteristic halving duration and the transformation as initial-amount rescaling." }, { "child": "half_life", "parent": "scale", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Half-Life presupposes Scale: it sets the characteristic time at which the process is naturally described and at which decay regimes change.", "reason": "Half-life provides the characteristic temporal scale of a first-order decay process \u2014 the natural unit at which the system's dynamics are most ergonomically described and across which population reductions of one-half, one-quarter, one-eighth are read off cleanly. That is exactly the role Scale plays: the specification of the size or resolution at which the system is naturally described, with behavior best understood at that band. Half-life presupposes scale as the dimension whose value it picks out for decay processes." }, { "child": "half_life", "parent": "recurrence", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Half-life presupposes recurrence because halving repeats at constant intervals, producing a recurrent equal-spacing pattern across the decay trajectory.", "reason": "Half-life presupposes recurrence because its defining property is that for a first-order process the time to halve recurs with constant value regardless of starting amount: each successive halving event takes the same characteristic time. Recurrence supplies the general structural pattern of reappearance with predictable spacing across time, iterations, or instances; half-life is a quantitative parameter of one particular recurrence pattern (the geometric sequence of halvings) that characterizes any exponentially decaying process and lets one infer remaining quantity from elapsed time." } ], "harmonic_distortion": [ { "child": "harmonic_distortion", "parent": "distortion", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Harmonic Distortion is a specialization of Distortion, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Distortion supplies the genus: Systematic, mapping-induced deviation of an output from a faithful rendering of its input. Harmonic Distortion preserves that general structure while adding its differentia: Passing a signal through a nonlinear transfer function generates new frequency components \u2014 harmonics and intermodulation products \u2014 absent from the input, an artifact of the nonlinearity itself rather than of any sampling or discretization. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "hashing": [ { "child": "hashing", "parent": "function_mapping", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Hashing is a deterministic many-to-one function from an unbounded input space to a short fixed-size token (a bounded codomain), used as the object's handle.", "reason": "Hashing is a deterministic many-to-one function from an unbounded input space to a short fixed-size token (a bounded codomain), used as the object's handle. A specialized function_mapping (deterministic, many-to-one-by-design, with a chosen sensitivity property)." } ], "hebbian_learning": [ { "child": "hebbian_learning", "parent": "learning", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Hebbian Learning is a specialization of Learning, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Learning supplies the genus: Durable, experience-driven update of an agent's internal state that carries forward to alter later behavior or prediction. Hebbian Learning preserves that general structure while adding its differentia: A connection between two units strengthens as a function of their correlated activity, through a local, correlational, unsupervised, cumulative update. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "helpful_inflow_displacement": [ { "child": "helpful_inflow_displacement", "parent": "crowding_out", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Helpful-inflow displacement is crowding out specialized to unsolicited pro-social inflow consuming the coordinator attention needed for the primary work.", "reason": "Both identities require an introduced activity to consume the finite substrate on which an incumbent activity depends. The child fixes that substrate to coordinator attention and adds unsolicited pro-social presentation, per-unit handling cost above operational value, a social cost of refusal, and a volume threshold at which apparent help becomes displacement." } ], "herding_behavior": [ { "child": "herding_behavior", "parent": "conformity", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Herding is conformity specialized to alignment with the crowd's visible choices under uncertainty, usually through informational rather than purely normative pressure.", "reason": "Both make a unit's expressed choice depend on a perceived aggregate rather than only on its private judgment. Herding fixes the aggregate signal to others' visible choices and foregrounds imitation under uncertainty; Conformity also admits alignment driven by sanction, belonging, or a group norm. Information Cascade remains a separate sequential strict child and is not an alias." } ], "hermeneutic_circle": [ { "child": "hermeneutic_circle", "parent": "interpretation", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "The hermeneutic circle is the specific shape interpretation takes when understanding the whole and the parts must be revised against each other iteratively.", "reason": "The hermeneutic circle is the specific shape interpretation takes when the representational substrate is a complex whole whose meaning depends on its parts and whose parts depend on the whole. Interpretation's general operation \u2014 recovering meaning from a substrate given a constraining framework \u2014 is structurally particularized into iterative movement between part-reading and whole-reading, with the interpreter's fore-structure revised at each pass. The general activity of producing a constrained reading is preserved; the specific shape is the spirally-convergent loop with no terminal closure that this interdependence forces." }, { "child": "hermeneutic_circle", "parent": "sensemaking", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "The hermeneutic circle presupposes sensemaking because its part-whole revising operation supplies the iterative refinement that working accounts under ambiguity require.", "reason": "The hermeneutic circle presupposes sensemaking when deployed as an organizational interpretive practice because constructing a plausible working account of ambiguous events relies on iteratively revising part-understandings against whole-understandings as new cues arrive. Sensemaking supplies the broader cognitive-social process of cue-extraction, bracketing, and commitment to a working frame; the hermeneutic circle supplies the specific part-whole iteration mechanism that makes the working frame refinable rather than fixed at the first pass. The two operate together: sensemaking under ambiguity needs the circle's iterative coherence-tightening to converge on usable interpretation." }, { "child": "hermeneutic_circle", "parent": "iteration", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "The hermeneutic circle is the specific shape iteration takes when interpretation alternates between part and whole, with each pass revising both.", "reason": "The hermeneutic circle is the interpretive particularization of iteration: each pass reads parts in light of a provisional whole and re-reads the whole in light of refined parts, with the fore-structure carried as state between passes and convergence measured by interpretive coherence. Where iteration names repeated application of a step with cumulative use of prior outputs generally, the hermeneutic circle fixes the step as interpretation, the state as the evolving fore-understanding, and the progress notion as tightening coherence between part-readings and whole-readings." } ], "heuristic": [ { "child": "heuristic", "parent": "approximation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "A heuristic is a specialization of approximation in which a tractable rule of judgment is substituted for exhaustive optimal analysis.", "reason": "A heuristic is a kind of approximation specialized to decision and inference under cognitive or computational constraint: a simplified rule yields a good-enough judgment much faster than exhaustive analysis at the cost of accuracy in some cases. It inherits approximation's commitment to substituting a tractable surrogate for an intractable target while accepting a bounded, named error in exchange for tractability, and supplies the specific case where the intractable target is optimal reasoning and the surrogate is a fast rule whose ecological fit determines whether the error budget is acceptable." }, { "child": "heuristic", "parent": "trade_offs", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Heuristic is the specific shape trade-offs take in inference, where speed and cognitive cost are gained at the price of accuracy.", "reason": "Trade-offs is the general structural situation in which improving one valued dimension requires worsening another within a feasible set. A heuristic is the particular shape this pattern takes for decision and inference rules: speed and cognitive-or-computational cost are improved at the price of accuracy in some cases and systematic error in others, with the rule's value defined by the favorable trade in its actual deployment environment. It is a structurally-particularized instance of trade-off whose specific dimensions are speed-cost-accuracy and whose feasible set is the available rule space." } ], "hidden_path_and_barrier_crossing": [ { "child": "hidden_path_and_barrier_crossing", "parent": "probability", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Hidden path and barrier crossing presupposes probability because barrier transit is a calculable transmission amplitude over forbidden regions.", "reason": "Hidden path and barrier crossing names transitions through classically forbidden regions with calculable probability, whether via quantum tunneling amplitudes or stochastic rare-event escape over an activation barrier. This presupposes probability: the calibrated quantification of uncertainty assigning numerical values to events under coherence rules. The transmission factor in the WKB approximation and the Arrhenius escape rate are both probability assignments to events that classical analysis would assign zero. Without probability's framework for numerical event-likelihood that obeys additivity and conditioning, the hidden-path transition has no quantitative content." }, { "child": "hidden_path_and_barrier_crossing", "parent": "state_and_state_transition", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Hidden path and barrier crossing presupposes state and state transition because tunneling and rare-event escape are transitions between states across a barrier.", "reason": "Hidden path and barrier crossing describes transitions between system states through a classically forbidden region \u2014 quantum tunneling, thermal-fluctuation escape \u2014 with calculable probability. The phenomenon is constitutively a state-to-state transition: there is an initial state on one side of the barrier, a final state on the other, and a transition rate governed by the barrier shape. State-and-state-transition supplies that substrate: a state space and transition rules. Without an underlying notion of distinct states and rule-governed transitions between them, there is nothing for the hidden path to connect." } ], "hierarchical_address": [ { "child": "hierarchical_address", "parent": "hierarchy", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "A string that ENCODES A PATH THROUGH a hierarchy, fusing identity and tree-position into one self-locating token; presupposes the containment hierarchy and adds the string-encoding (and its restructuring fragility) the bare relation lacks.", "reason": "A string that ENCODES A PATH THROUGH a hierarchy, fusing identity and tree-position into one self-locating token; presupposes the containment hierarchy and adds the string-encoding (and its restructuring fragility) the bare relation lacks. Hierarchy supplies the prerequisite condition: Organizes elements into levels or ranks. Hierarchical Address operates against that background: A single string whose substring structure encodes a path through a tree, so the identifier simultaneously names an entity and locates it within a containment hierarchy. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "hierarchical_decomposability": [ { "child": "hierarchical_decomposability", "parent": "hierarchy", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Hierarchical decomposability presupposes hierarchy's ranked-levels structure and adds within-level-dominates-cross-level coupling as a refinement.", "reason": "Hierarchical decomposability presupposes hierarchy's ranked-levels structure and adds within-level-dominates-cross-level coupling as a refinement. Hierarchy supplies the genus: Organizes elements into levels or ranks. Hierarchical Decomposability preserves that general structure while adding its differentia: Nested decomposition where within-level coupling dominates over cross-level coupling, making complex systems tractably analyzable one scope at a time. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "hierarchy": [ { "child": "hierarchy", "parent": "network", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Hierarchy is the restricted kind of Network whose edges impose asymmetric, transitive levels rather than an unrestricted connection pattern.", "reason": "The Hierarchy and Network dossiers independently state this genus relation. Every hierarchy has nodes and edges whose pattern is first-class; the child adds an antisymmetric level order, direction-sensitive cross-level flow, and a tree-to-DAG-to-heterarchy restriction axis." }, { "child": "hierarchy", "parent": "order", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Hierarchy is order with explicit levels and asymmetric cross-level structure.", "reason": "Hierarchy retains the general ordering relation and adds explicit ranked levels, transitive asymmetric cross-level semantics, and often rooted parent structure. The order entry explicitly treats hierarchy as a kind of order rather than every order as hierarchical." } ], "higher_order_function": [ { "child": "higher_order_function", "parent": "function_mapping", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "'Not function_mapping \u2014 a function-mapping is the FIRST-ORDER layer (data to data); a higher-order function operates on the NEXT layer up, taking or returning functions themselves...", "reason": "'Not function_mapping \u2014 a function-mapping is the FIRST-ORDER layer (data to data); a higher-order function operates on the NEXT layer up, taking or returning functions themselves... a STRATIFIED EXTENSION of function_mapping.' A specialization where inputs/outputs are themselves mappings. Function (Mapping) supplies the genus: Relates inputs to outputs. Higher Order Function preserves that general structure while adding its differentia: Treating a rule itself as a first-class object that other rules consume or produce. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "historical_determinism": [ { "child": "historical_determinism", "parent": "determinism", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Historical determinism is a kind of determinism in which historical outcomes are held to be fixed by underlying lawful forces independent of individual agency.", "reason": "Historical determinism is a specialization of determinism: it asserts that the present state of a society plus the underlying forces (economic base, technological trajectory, geographic endowment) fix the trajectory of historical outcomes via lawful regularity. It inherits determinism's structural thesis \u2014 state plus laws yields unique successor \u2014 particularized to the macro-historical case where the relevant state and laws operate over civilizational rather than physical variables, with the corresponding deflation of contingency and agency." } ], "historical_empathy": [ { "child": "historical_empathy", "parent": "interpretation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Historical Empathy is a kind of interpretation: reconstructing past actors' frames recovers meaning under their available beliefs and constraints.", "reason": "Historical empathy interprets past actors under the beliefs, values, information, and options they actually faced, deliberately reconstructing the decision environment of the period rather than imposing present-day frameworks. That is the activity of Interpretation \u2014 recovering meaning from a representational substrate under a framework that makes some readings available and others not \u2014 specialized to historical evidence under the period's own conceptual scheme. Historical empathy is interpretation disciplined by anachronism-avoidance and period-internal framing." }, { "child": "historical_empathy", "parent": "presentism", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Historical empathy presupposes presentism because it is a corrective discipline defined precisely against presentism's import of present values into the past.", "reason": "Historical empathy presupposes presentism because its methodological structure is defined as the corrective to presentism: it deliberately reconstructs past actors' decision environments under the beliefs, norms, and information they actually held rather than under those of the interpreter's present. Presentism supplies the diagnostic error pattern (import of present categories into past contexts) against which historical empathy positions its discipline. Without the prior identification of presentism as the systematic interpretive error, there is no contrast that historical empathy is engineered to avoid and against which its methods are justified." }, { "child": "historical_empathy", "parent": "historicism", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Historical empathy interprets past actors under their own beliefs and constraints \u2014 a historicist, context-bound method.", "reason": "Historical empathy interprets past actors under their own beliefs and constraints \u2014 a historicist, context-bound method. Historicism supplies the genus: Context-bound understanding. Historical Empathy preserves that general structure while adding its differentia: Interpret in context. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "historicism": [ { "child": "historicism", "parent": "interpretation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Historicism is a specific kind of interpretation that recovers meaning by reconstructing the period-specific conditions of a phenomenon.", "reason": "Historicism is a specialization of interpretation. The general pattern recovers meaning from a representational substrate given a framework that makes some readings available and others not, producing readings that are answerable to evidence and convention. Historicism instantiates this with the framework being the documentary, institutional, and material conditions of the phenomenon's specific historical period, treated as a precondition for understanding. Beliefs, institutions, and practices are read on their own terms by reconstructing the period; abstracting from those conditions is held to misread the phenomenon." }, { "child": "historicism", "parent": "path_dependence", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Historicism presupposes path dependence because interpreting phenomena on their own period-specific terms requires that historical conditions constitutively shape outcomes.", "reason": "Historicism holds that phenomena \u2014 beliefs, institutions, practices \u2014 are products of specific historical conditions and cannot be adequately understood by abstracting from those conditions. The methodological commitment to contextualization presupposes that historical trajectories constitutively shape what exists at any time, not merely as background but as causally determinative. Path dependence supplies exactly that: outcomes determined not by current conditions alone but by the specific historical trajectory that produced them. Without the path-dependence claim that history accumulates constraints, historicism's insistence on period-specific interpretation has no structural ground." } ], "holarchy": [ { "child": "holarchy", "parent": "modularity", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Holarchy presupposes modularity because each holon's dual-facing identity as whole-and-part requires the well-bounded self-contained module that modularity supplies.", "reason": "A holarchy is a nested ordering whose every unit is a holon, simultaneously a whole with respect to its parts and a part with respect to the level above. This presupposes modularity: decomposition into discrete, largely self-contained components with stable interfaces. Each holon must be self-contained enough to be a whole downward (internally coherent module) while interfacing cleanly enough to be a part upward (composable with peers). Without modularity's commitment to bounded units with explicit interfaces, the Janus-faced identity collapses; the holon needs the modular structure to face both directions coherently." }, { "child": "holarchy", "parent": "emergence", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Holarchy presupposes emergence because each level above the holons must possess properties or behaviors not attributes of the constituent holons.", "reason": "A holarchy is a nested ordering whose every unit is a holon that integrates upward into a higher-level whole. This presupposes emergence: the appearance, at a higher level of organization, of properties or behaviors that are not attributes of lower-level constituents and are not trivially predictable from them. Each level above contributes new descriptive vocabulary and causal roles that the constituent holons do not individually possess. Without emergence supplying the structural reason that the higher level is more than the sum of holons, the nesting collapses into a mere set membership rather than a layered ordering of qualitatively distinct levels." }, { "child": "holarchy", "parent": "layering", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Holarchy presupposes layering because Janus-faced holons only exist where a system is already organized into stacked strata of whole-and-part levels.", "reason": "A holarchy is composed of holons that face downward as wholes governing their parts and upward as parts within a larger whole. This dual-facing identity requires that the system already be organized into a stack of horizontal strata with each layer providing abstractions and services to the next \u2014 the structural commitment layering names. Without an underlying multi-level stratification, there would be no upward face for a unit to be a part of and no downward face for it to govern as a whole. Holarchy specializes layering by demanding mutual whole-part status at every level." } ], "holdout_set": [ { "child": "holdout_set", "parent": "validation", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Holdout Set typically presupposes Validation, whose structure must already obtain for the child mechanism to be meaningful or operational.", "reason": "Validation supplies the prerequisite condition: Confirming that an artifact actually solves the intended problem in its real operational context, as distinct from confirming it was merely built to specification. Holdout Set operates against that background: Reserve a disjoint portion of evidence to score a candidate it never shaped. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "homeostasis": [ { "child": "homeostasis", "parent": "stability", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "'homeostasis is one biological instance of stability \u2014 a regulated variable held near a setpoint by negative feedback'; stability is the general structural pattern covering passive cases (a damped pendulum, a peg) with no homeostat.", "reason": "'homeostasis is one biological instance of stability \u2014 a regulated variable held near a setpoint by negative feedback'; stability is the general structural pattern covering passive cases (a damped pendulum, a peg) with no homeostat. Stability supplies the genus: A system's tendency to return toward an operating point after perturbation. Homeostasis preserves that general structure while adding its differentia: Maintain internal stability. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." }, { "child": "homeostasis", "parent": "discrepancy_driven_correction", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "'homeostasis is one biological OUTCOME of a stabilising correction loop...", "reason": "'homeostasis is one biological OUTCOME of a stabilising correction loop... this prime is the general loop mechanism.' discrepancy_driven_correction is the broad loop of which homeostasis (constant-setpoint biological case) is a special instance. Discrepancy-Driven Correction supplies the genus: Iteratively close the signed gap between a target and an observation. Homeostasis preserves that general structure while adding its differentia: Maintain internal stability. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "horizon_scanning": [ { "child": "horizon_scanning", "parent": "foresight", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Horizon scanning is a specific foresight method that systematically surveils weak signals of nascent change before they reach the mainstream.", "reason": "Horizon scanning is a specialization of foresight whose distinctive move is broad, ongoing surveillance for weak signals \u2014 emerging technologies, slow-burning trends, anomalies \u2014 that have not yet become mainstream but could reshape decisions if they grow or converge. It inherits foresight's commitment to structured anticipation of plural futures informing present action, and supplies the specific monitoring component of the foresight methods stack, focusing on the small-but-potentially-significant end of the signal-to-noise spectrum that single-future forecasting and reactive news monitoring miss." }, { "child": "horizon_scanning", "parent": "weak_signals_emerging_issues", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Horizon scanning presupposes weak signals & emerging issues because its systematic peripheral search targets exactly the weak-signal end of the spectrum.", "reason": "Horizon scanning is the systematic, ongoing search for early signals of change \u2014 nascent technologies, emerging shifts, anomalies \u2014 not yet mainstream but structurally significant. The method is meaningful only against the prior recognition that meaningful change typically begins with individually weak and collectively discordant observations at the periphery. Weak signals and emerging issues names that substrate: the structural commitment that early-phase change appears as weak signals requiring deliberate peripheral attention. Without weak signals as a first-class category, horizon scanning would have nothing distinctive to look for and no rationale for its counter-routine attention." }, { "child": "horizon_scanning", "parent": "monitoring", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Horizon scanning is a specialization of monitoring focused on weak early signals of change that have not yet become mainstream.", "reason": "Horizon scanning is a specialization of monitoring in which the observation function is tuned to the weak-signal end of the signal-to-noise spectrum: nascent technologies, slow-burning trends, emergent shifts not yet mainstream but with structural potential. It inherits monitoring's general apparatus of continuous observation and alerting and specializes by fixing the target band to faint, anomalous, leading-indicator signals and by combining broad-source surveillance with interpretive practices for amplifying what would otherwise be dismissed as noise. Where standard monitoring tracks deviations from a known setpoint, horizon scanning tracks signs that the setpoint itself may shift." } ], "human_centered_accommodation": [ { "child": "human_centered_accommodation", "parent": "accommodation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Human-centered accommodation is a specialization of accommodation in which the external pressures are real human cognitive and physical capacities.", "reason": "Human-centered accommodation is a specialization of accommodation. The general pattern is selective internal adjustment to external pressure that preserves identity while restoring fit; the human-centered case specifies the external pressures as the actual cognitive, physical, sensory, and temporal capacities of the humans interacting with the system. The system reconfigures itself around real human constraints rather than around idealized users. The same fit-by-internal-modification logic applies, with human capability as the specific source of the demands to which the system must accommodate." } ], "hypothesis_testing_null_vs_alternative": [ { "child": "hypothesis_testing_null_vs_alternative", "parent": "verification", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Hypothesis testing is a specific kind of verification, checking sample evidence against a pre-specified null with controlled error rates.", "reason": "Hypothesis testing is a specialization of verification. The general pattern checks that an object conforms to its specification via a defined procedure yielding evidence and a verdict. Hypothesis testing instantiates this with the object being a research claim about a parameter, the specification being a pre-specified null hypothesis (often no effect), and the procedure being a test statistic with known null distribution evaluated against a pre-set threshold controlling Type I error. The verdict is reject or fail-to-reject H0. It is verification with calibrated long-run error control as the procedure's structural guarantee." }, { "child": "hypothesis_testing_null_vs_alternative", "parent": "statistical_inference", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Hypothesis testing is a specialization of statistical inference that frames the inferential question as a pre-specified decision between two complementary hypotheses.", "reason": "Hypothesis testing is a specialization of statistical inference in which the inference is cast as a formal decision under sampling uncertainty: a null and an alternative are stated in advance, a test statistic with a known null distribution is chosen, and a threshold is set to control long-run error rates. It inherits the general inferential commitment of reasoning from finite samples to population claims under explicit accounting for variability, and specializes by structuring that reasoning as a dichotomous reject/retain verdict with controlled error probabilities." } ], "hysteresis": [ { "child": "hysteresis", "parent": "state_and_state_transition", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Hysteresis is a specific kind of state transition where current state depends on the path by which conditions were reached.", "reason": "Hysteresis is a specialization of state and state transition. The general pattern specifies a state space and a transition relation, with future behaviour depending on current state plus inputs. Hysteresis instantiates this with multiple stable states existing at the same external parameter value: which one the system occupies depends on the path through parameter space, so the response curve forms a loop rather than a single-valued function. History is encoded in the system's internal state in a way external parameters alone cannot reveal, which is exactly the state-as-Markovian-summary structure the parent pattern names." }, { "child": "hysteresis", "parent": "path_dependence", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Hysteresis is a specialization of path dependence in which the loop structure is visible in the response curve to a varied parameter.", "reason": "Hysteresis is a specialization of path dependence. The general path-dependence pattern says current state depends on the historical trajectory, not just on current external conditions. Hysteresis specializes by adding a particular signature: as an external parameter is varied up and down, the system's state traces a loop rather than a single-valued curve, with multiple stable states accessible at the same parameter value depending on history. The same history-encodes-state commitment persists, with the loop in the response curve as the diagnostic shape of the path dependence." } ], "icon_index_symbol_distinction": [ { "child": "icon_index_symbol_distinction", "parent": "representation", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Icon-index-symbol distinction is the specific shape representation takes when signs are classified by the ground of their relation to the referent.", "reason": "Icon-index-symbol distinction is the structurally-particularized form representation takes when Peirce's trichotomy is applied: the icon-target correspondence is grounded in resemblance, the index-target correspondence in existential or causal contiguity, and the symbol-target correspondence in convention. It inherits representation's faithfulness-claim apparatus \u2014 target, medium, correspondence convention \u2014 particularized by classifying the three structurally distinct ways the correspondence can be grounded, each with different inference rules for the interpreter." } ], "iconicity": [ { "child": "iconicity", "parent": "representation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Iconicity is a specific kind of representation where the form-meaning correspondence is motivated by resemblance rather than pure convention.", "reason": "Iconicity is a specialization of representation. The general pattern maps a target onto a medium under a stated convention so operations on the medium correspond to operations on the target, with a faithfulness claim about preserved structure. Iconicity instantiates this with the convention being motivated by perceptible resemblance between sign form and meaning, so an interpreter with sufficient exposure can infer meaning from formal properties rather than rote memorization. The mapping is grounded in shared structure between form and referent, distinguishing iconic representation from the purely conventional symbolic mode." } ], "iconography": [ { "child": "iconography", "parent": "symbolic_representation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Iconography is a specific kind of symbolic representation organized as culturally-systematic repertoires of visual forms.", "reason": "Iconography is a specialization of symbolic representation. The general pattern fixes sign-meaning relations through collective convention rather than resemblance or causal link. Iconography instantiates this with the convention being a culturally-organized visual repertoire (icons, emblems, allegorical figures, attributes, colors, gestures) whose meanings are prescribed within a shared visual system. It is symbolic representation specifically operating across visual channels with a systematic catalog of conventional forms, so that interpreting a visual element draws on the shared cultural code rather than on perceptible resemblance to what it denotes." } ], "idealized_substrate_fallacy": [ { "child": "idealized_substrate_fallacy", "parent": "abstraction", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "The fallacy is carrying a (legitimate) idealizing ABSTRACTION across a deployment boundary without re-introducing the friction terms it dropped; it presupposes an abstraction and is the specific decision-error of trusting it where its preconditions stop holding.", "reason": "The fallacy is carrying a (legitimate) idealizing ABSTRACTION across a deployment boundary without re-introducing the friction terms it dropped; it presupposes an abstraction and is the specific decision-error of trusting it where its preconditions stop holding. Abstraction supplies the prerequisite condition: Focus on core elements. Idealized-Substrate Fallacy operates against that background: Designing against a friction-stripped idealized substrate, then deploying onto a real one where the elided terms dominate. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "idempotence": [ { "child": "idempotence", "parent": "iteration", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Idempotence is a specialization of iteration whose progress-rule collapses every repeat application to the same state as the first.", "reason": "Idempotence is a kind of iteration in which the iteration step f satisfies f(f(x)) = f(x), so the state carried between rounds stops changing after the first application and every stopping condition is trivially met. It inherits iteration's commitment to repeated application of a process, but specializes the notion of progress: there is no further convergence to chase once the operation has fired once. This is what makes idempotent operations safe to retry, replay, or duplicate under uncertain delivery \u2014 repetition adds nothing beyond round one." }, { "child": "idempotence", "parent": "invariance", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Idempotence is a specialization of invariance in which the preserved feature is the operation's output and the transformation family is repeated application of the operation.", "reason": "Idempotence is a specialization of invariance in which the preserved feature is the result of applying an operation and the transformation family is further applications of the same operation: f(f(x)) equals f(x), so repetition leaves the output unchanged after the first application. It inherits the general invariance commitment that a named feature remains unchanged under a named family of transformations, and specializes by fixing both: the feature is the operation's value and the transformation is self-repetition. This grounds safe retry, replay, and duplicate-tolerance in distributed systems." } ], "identifiability": [ { "child": "identifiability", "parent": "injectivity", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Identifiability is injectivity of an admissible internal-target-to-observation map.", "reason": "Identifiability specializes injectivity to a model or target parameter mapped into observable distributions. Success means singleton preimages on the admissible target subspace, with an epistemic gating interpretation." } ], "identification": [ { "child": "identification", "parent": "social_identity_theory", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Identification typically presupposes Social Identity Theory, whose structure must already obtain for the child mechanism to be meaningful or operational.", "reason": "Social Identity Theory supplies the prerequisite condition: Identity via groups. Identification operates against that background: One party aligns belief or action with another because it recognizes itself \u2014 its values, memberships, identity \u2014 in the other, with persuasion proceeding via self-concept rather than argument. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "identifier_assignment": [ { "child": "identifier_assignment", "parent": "indirection", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Identifier_assignment CREATES the handle that indirection later resolves (dereference uses indirection); minting+binding is a prior distinct act that presupposes the indirection-resolution machinery.", "reason": "Identifier_assignment CREATES the handle that indirection later resolves (dereference uses indirection); minting+binding is a prior distinct act that presupposes the indirection-resolution machinery. Indirection supplies the prerequisite condition: Introduces intermediary references. Identifier Assignment operates against that background: Mint a durable handle for an entity and bind it to that entity in a public, queryable record, so future reference can route through the handle without re-describing the entity. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." }, { "child": "identifier_assignment", "parent": "naming_act_object", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Identifier assignment is the managed-reference species of appellation, adding namespace uniqueness, a durable binding record, and a dereference protocol to authoritative token-to-entity binding.", "reason": "Every identifier assignment performs Naming Act/Object's authoritative binding of an opaque portable token to an entity. It adds guaranteed uniqueness within a namespace, a durable public binding record, and a resolution protocol that ordinary personal, ceremonial, or descriptive appellation need not provide." } ], "identity_providing_kind": [ { "child": "identity_providing_kind", "parent": "essentialism", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Identity_providing_kind ISOLATES the one essentialist sub-question (which category fixes sameness over time) and supplies the cease-to-exist test the broad notion lacks \u2014 a specialization of essentialism narrowed to persistence-over-time.", "reason": "Identity_providing_kind ISOLATES the one essentialist sub-question (which category fixes sameness over time) and supplies the cease-to-exist test the broad notion lacks \u2014 a specialization of essentialism narrowed to persistence-over-time. Not every essential property is identity-providing. Essentialism supplies the genus: Inherent defining properties. Identity-Providing Kind preserves that general structure while adding its differentia: A category whose membership fixes what it takes for an instance to remain the same instance over time, supplying persistence criteria rather than a temporary description. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." }, { "child": "identity_providing_kind", "parent": "criteria_of_individuation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Identity-Providing Kind is a specialization of Criteria of Individuation, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Criteria of Individuation supplies the genus: The rules a system fixes for what makes something one entity \u2014 when parts compose a single whole, when two presentations are the same entity, and which kind supplies a thing's persistence \u2014 together constituting its inventory of countable individuals. Identity-Providing Kind preserves that general structure while adding its differentia: A category whose membership fixes what it takes for an instance to remain the same instance over time, supplying persistence criteria rather than a temporary description. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "identity_test": [ { "child": "identity_test", "parent": "criteria_of_individuation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Identity Test is a specialization of Criteria of Individuation, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Criteria of Individuation supplies the genus: The rules a system fixes for what makes something one entity \u2014 when parts compose a single whole, when two presentations are the same entity, and which kind supplies a thing's persistence \u2014 together constituting its inventory of countable individuals. Identity Test preserves that general structure while adding its differentia: The rule that decides, in a given system, when two presentations refer to the same entity. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "immutability": [ { "child": "immutability", "parent": "constraint", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Immutability is the specific shape a constraint takes when in-place modification of a value or record is forbidden across all subsequent operations.", "reason": "Immutability is the constraint-particularized commitment that in-place mutation is excluded from the admissible operations on a value once created: any apparent change must be realized as a new value while the original is preserved. Where constraint names binding restrictions on admissible configurations generally, immutability fixes the restriction at the operation of overwriting, so that the feasible set of operations on any created entity excludes destructive modification and the historical states remain separately addressable." } ], "impartiality": [ { "child": "impartiality", "parent": "symmetry", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Impartiality is the specific shape symmetry takes when the transformation group is permutation of party identities applied to treatment.", "reason": "Impartiality is a structurally-particularized instance of symmetry, where the transformation group is the permutation of party identities and the object held invariant is the treatment, judgment, or allocation. Once a line is drawn between relevant features and irrelevant identity features, impartiality asserts that swapping the identities of the parties leaves the outcome unchanged. The general algebraic pattern of invariance-under-a-named-group takes on its ethical-political form here, with identity as the action and like-treatment as the invariant." } ], "impedance_mismatch_and_coupling_efficiency": [ { "child": "impedance_mismatch_and_coupling_efficiency", "parent": "interoperability", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Impedance mismatch and coupling efficiency presupposes interoperability because mismatch only makes sense as a deviation from a baseline of effective cross-system transfer.", "reason": "Impedance mismatch and coupling efficiency presupposes interoperability because its core claim, that transfer between subsystems is lossy when their characteristic properties diverge, is a claim about the degree to which two systems can effectively work together across an interface. Interoperability supplies the structural baseline of cross-system cooperation through agreed interfaces; impedance mismatch then names the structural pattern by which efficiency degrades as the interface conditions are not met. Without the prior commitment to systems composing through specified interfaces, there is no notion of mismatch to grade." }, { "child": "impedance_mismatch_and_coupling_efficiency", "parent": "compatibility", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Impedance mismatch and coupling efficiency presupposes compatibility because lossy transfer between subsystems is the failure of their characteristic properties to align.", "reason": "Impedance mismatch and coupling efficiency presupposes compatibility because the efficiency of energy, signal, or influence transfer across an interface is exactly compatibility's relational alignment condition expressed quantitatively: matched impedances are the compatibility condition for non-reflecting transfer, mismatched ones are the breakage. Without compatibility's framing of coexistence-and-interaction as a between-entity property, mismatch has no reference baseline; coupling efficiency is a continuous measure of how nearly the interface satisfies compatibility at the relevant characteristic property. Compatibility supplies the prerequisite condition: The relational condition under which two or more entities can coexist or compose without breakage, interference, or contradiction. Impedance Mismatch and Coupling Efficiency operates against that background: Property differences reduce energy or signal transfer efficiency. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "implementation_intention": [ { "child": "implementation_intention", "parent": "prospective_memory", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "An implementation intention is prospective memory specialized by pre-binding a future cue to a particular action.", "reason": "An implementation intention is prospective memory specialized by pre-binding a future cue to a particular action. Prospective Memory supplies the genus: An intended future action is encoded paired with a triggering cue, persists latently without rehearsal, and is retrieved and executed when a parallel cue-detection process fires. Implementation Intention preserves that general structure while adding its differentia: Pre-binding a specific future cue to a specific action so that at execution time the cue triggers the behavior without re-deliberation. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "improvisation": [ { "child": "improvisation", "parent": "constraint", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "A live backbone of rules, resources, timing, or form is a constitutive part of improvisation rather than an incidental limitation.", "reason": "Improvisation generates competent moves within and against a developing constraint set; remove that backbone and the result is unconstrained production or noise rather than situated improvisation." } ], "incentive": [ { "child": "incentive", "parent": "feedback", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "An incentive contains a consequence-to-future-choice feedback path linking payoff signals to subsequent behavior.", "reason": "A payoff attached to an act functions as an incentive only when its consequence can alter later selection or effort; without that return path it is merely an outcome, not a behavior-shaping signal." } ], "incentive_compatibility": [ { "child": "incentive_compatibility", "parent": "compatibility", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Incentive compatibility is a specialization of compatibility in which the entities reconciled are an agent's self-interest and a designer's objective.", "reason": "Incentive compatibility is a specialization of compatibility in which the entities being made to coexist without breakage are the participants' private payoff calculations and the mechanism designer's desired outcomes. It inherits compatibility's general structure of two systems aligning so they can interact without contradiction, and specializes by fixing the systems to self-interested agents and a rule structure: the mechanism is compatible with the agents' incentives when truthful or socially desired action is also their best response. The compatibility relation here is between motivations and rules rather than between physical plugs, formats, or organisms." }, { "child": "incentive_compatibility", "parent": "mechanism_design", "type": "mutual", "flavor": "", "qualifier": "strict", "reason_short": "Incentive compatibility and mechanism design are interdefinable complements \u2014 the property a mechanism must have to do its job, and the field that engineers for it.", "reason": "Incentive compatibility and mechanism design are interdefinable structural complements: mechanism design is the engineering discipline that searches for rule structures implementing desired outcomes under private information and self-interest, while incentive compatibility is precisely the property such a rule structure must satisfy \u2014 that each agent's best response coincides with the designer's intended action. Neither is prior. The field is defined by the property it pursues; the property is defined by its role in the field. Each makes sense only with the other already in view, as the question and its required answer." } ], "incident_response": [ { "child": "incident_response", "parent": "event_lifecycle_phases", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Incident Response is a specialization of Event Lifecycle Phases, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Event Lifecycle Phases supplies the genus: Decomposing a hazard-bearing event into pre-event, event, and post-event regimes and treating each phase, not the event, as the primary unit of intervention design. Incident Response preserves that general structure while adding its differentia: A system facing acute, time-critical disruption engages a temporary command regime that prioritises stabilisation over diagnosis, accepts reversible degradation, defers root-cause analysis, and compresses decision authority for the duration of the acute phase only. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "incomplete_contract": [ { "child": "incomplete_contract", "parent": "contract", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "An incomplete contract is, structurally, a contract (a rule-set fixing outcomes for some contingencies) plus the distinctive move of an acknowledged gap and designated gap-handler and governance.", "reason": "An incomplete contract is, structurally, a contract (a rule-set fixing outcomes for some contingencies) plus the distinctive move of an acknowledged gap and designated gap-handler and governance. contract is the canonical genus; incomplete_contract is the specific kind that deliberately leaves gaps. severs it from interface (complete contract over its cases), delegation (only the decision-right piece), and optionality (a held right) \u2014 none is the genus; contract is. Good conviction: the is a specialization of holds even though the prime is heavily framed (law/econ), because every instance is literally a contract or rule-set. Contract supplies the genus: A multi-party bundle of obligations, breach criteria, and remedies under an accepted enforcement regime. Incomplete Contract preserves that general structure while adding its differentia: A rule-set that deliberately leaves gaps and designates a handler to fill them. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "inconsistent_shared_model": [ { "child": "inconsistent_shared_model", "parent": "representation", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Inconsistent Shared Model contains two or more representations of one referent whose individually coherent contents cannot jointly be true.", "reason": "The failure is not raw data difference or evaluative disagreement; it requires separately maintained surrogates that guide inference until joint action exposes the mismatch. Representation supplies an internal constituent: Model complex ideas. Inconsistent Shared Model requires that role within this mechanism: Subsystems hold mutually incompatible models of the same external state, undetected until a forcing event requires joint action. Remove the parent-role and the child loses a required internal operation, even though the parent can exist outside the child. The child is therefore built from the parent rather than being a taxonomic kind of it." } ], "index": [ { "child": "index", "parent": "search_and_retrieval", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "'Not search_and_retrieval \u2014 search is the ACT; an index is a pre-built side structure that makes certain searches fast.' An index presupposes a retrieval setting it accelerates; it is the apparatus-for-retrieval, not the retrieval activity.", "reason": "'Not search_and_retrieval \u2014 search is the ACT; an index is a pre-built side structure that makes certain searches fast.' An index presupposes a retrieval setting it accelerates; it is the apparatus-for-retrieval, not the retrieval activity. Search and Retrieval supplies the prerequisite condition: Locate and extract information. Index operates against that background: An auxiliary key-to-location table that makes lookup fast at the cost of maintenance. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "indexicality": [ { "child": "indexicality", "parent": "representation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Indexicality is representation specialized to signs whose reference is grounded in existential, causal, or contextual connection.", "reason": "An index stands for an object while adding the differentia that the sign-object relation is actual contiguity or dependence rather than resemblance or arbitrary convention." } ], "indifference_curves": [ { "child": "indifference_curves", "parent": "preference", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Indifference curves presuppose preference because each curve is a level set of the agent's preference-based ordering over consumption bundles.", "reason": "Indifference curves presuppose preference because each curve is by definition the locus of bundles the consumer ranks as equally preferred \u2014 a level set of the preference ordering rendered visually as a curve in commodity space. Without preference as the underlying ordering on the choice set, there is no equivalence class of equally-ranked bundles to draw, no marginal rate of substitution to read off, and no ordinal structure for the curves to represent. Preference supplies the ordering primitive; indifference curves are its geometric representation." }, { "child": "indifference_curves", "parent": "marginal_utility", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Indifference curves presuppose marginal utility because their slope \u2014 the marginal rate of substitution \u2014 is the ratio of marginal utilities of the two goods.", "reason": "Indifference curves presuppose marginal utility because the slope of any indifference curve at a point \u2014 the marginal rate of substitution between the two goods \u2014 is by definition the ratio of their marginal utilities. The construction of a level set of the utility function requires the partial-derivative machinery of marginal utility to determine how much of one good compensates for less of the other while keeping satisfaction constant. Marginal utility supplies the local rate-of-change apparatus that gives indifference curves their slope and curvature." }, { "child": "indifference_curves", "parent": "representation", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Indifference curves are the specific shape representation takes when consumer preferences are mapped onto level sets in commodity space.", "reason": "Indifference curves are the specific shape representation takes when an ordinal preference structure is mapped onto geometric level sets in commodity space. Representation's general anatomy \u2014 target, medium, faithfulness-preserving mapping under a stated convention \u2014 is structurally particularized into the consumer's preference ordering as the target, two-dimensional curves in commodity space as the medium, and the convention that movement along a curve preserves indifference. The general structured-mapping operation is preserved; the specific shape is its geometric realization that makes substitution and choice tractable through visual reasoning." } ], "indirection": [ { "child": "indirection", "parent": "layering", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Indirection is a specific kind of layering, interposing a reference between consumer and provider to decouple them.", "reason": "Indirection is a specialization of layering. The general pattern organizes a system into horizontal strata where each layer provides abstractions higher layers depend on while hiding internal implementation. Indirection instantiates this at minimum scale: a single interposed reference between consumer and provider, hiding the provider's identity, location, or implementation behind the reference. The reference is a one-element layer that the consumer talks through; substituting the provider does not propagate to the consumer because the layer absorbs the change. Late binding, polymorphism, and virtualization are all instances of this minimal-layer pattern." }, { "child": "indirection", "parent": "abstraction", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Indirection presupposes abstraction because interposing a referencing layer requires deciding which features of the provider to retain as the contract.", "reason": "Indirection presupposes abstraction because the referencing mechanism interposed between consumer and provider must commit to a purpose-relative projection: what features of the provider the reference exposes (the interface contract) and what it hides (identity, location, implementation). Without abstraction's judged choice of load-bearing structure, the indirection layer has no principled content to mediate -- it would have to forward everything, defeating the decoupling, late binding, and substitution that motivate it. The reference is an abstraction made concrete as a runtime handle. Abstraction supplies the prerequisite condition: Focus on core elements. Indirection operates against that background: Introduces intermediary references. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." }, { "child": "indirection", "parent": "function_mapping", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Indirection contains the reference-to-provider mapping that its resolution mechanism evaluates while decoupling consumer from provider.", "reason": "The live Indirection signature explicitly includes a single-valued mapping from each admitted reference to its provider. Remove that map and an intermediate name or handle cannot resolve, so there is only an extra object, not a usable layer of indirection. The whole adds reference lifecycle, decoupling, resolution timing, substitution, costs, and failure modes." } ], "infinite_regress": [ { "child": "infinite_regress", "parent": "dependency", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "An infinite regress is a kind of dependency chain in which each element depends on a further element of the same kind without termination.", "reason": "An infinite regress is a specialization of dependency where the directed relation \"A relies on B being prior, present, or supplied\" iterates without natural stopping point: each justifier, explainer, or ground itself requires another of the same kind. It inherits dependency's core asymmetry but adds the structural feature that the chain is non-terminating unless exited via foundationalism, circularity, or explicit endorsement of the unbounded series. The pathology is precisely a dependency relation that fails to reach a base case." }, { "child": "infinite_regress", "parent": "reflexivity_self_reference", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "An infinite regress is a kind of reflexivity in which the chain loops back to reference itself when coherentist closure is taken.", "reason": "An infinite regress is a specialization of reflexivity in its coherentist resolution: when the unending chain of same-kind dependencies cannot be grounded foundationally, the regress can only be closed by looping back on itself, producing the self-referential structure that reflexivity formalizes. Inheriting reflexivity's pattern in which a system's representation becomes part of what is represented, infinite regress is the diagnostic shape that exposes when justification, explanation, or grounding has no exit except a return to its own starting point." }, { "child": "infinite_regress", "parent": "recursion", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Infinite regress is a specialization of recursion in which the self-referential chain lacks a base case and continues without terminating.", "reason": "Infinite regress is a specialization of recursion in which the defining feature of a base case is absent: each step generates a further step of the same kind, and no terminating condition halts the chain. It inherits the recursive structure of a rule that relates each instance to a smaller or similar one, and specializes by stripping out the well-founded measure that would force termination. The same self-similar structure that grounds productive mathematical recursion, deprived of its base case, becomes the diagnostic problem of an unending justification chain." }, { "child": "infinite_regress", "parent": "infinity", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "An infinite regress contains an unbounded same-kind sequence whose continuation beyond every finite stopping point is its infinity constituent.", "reason": "The dependency or justificatory relation gives a regress its domain-specific content, while the absence of any finite terminal member gives it its unbounded structure. Infinity is therefore a constituent of the regress rather than a synonym: many infinite structures are not regresses, but a genuine infinite regress cannot be reduced to any finite chain." } ], "informal_enforcement": [ { "child": "informal_enforcement", "parent": "social_norms", "type": "mutual", "flavor": "", "qualifier": "strict", "reason_short": "Informal enforcement and social norms are interdefinable complements: each norm requires diffuse sanctioning, and informal sanctioning presupposes a shared expectation.", "reason": "Social norms and informal enforcement are interdefinable structural complements \u2014 neither is prior; each is the negation/complement of the other. A norm without distributed disapproval is just a private preference; diffuse sanctioning without a shared expectation about how people should behave has no rule to enforce. The expectation gives the sanction its target and legitimacy; the sanctioning gives the expectation its bite and stability. They co-constitute the same order phenomenon viewed from the rule side and the enforcement side respectively." } ], "information_asymmetry": [ { "child": "information_asymmetry", "parent": "asymmetry", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Information asymmetry is a kind of asymmetry in which two parties hold unequal private knowledge relevant to their interaction.", "reason": "Information asymmetry is a specialization of asymmetry: the relation between two parties' knowledge states fails the swap-test \u2014 exchanging the better-informed and less-informed party changes the terms, prices, and risks of the interaction. It inherits asymmetry's directed-imbalance structure and particularizes it to the epistemic-distribution case where the relevant imbalance is who knows what, not who has what. Akerlof's lemons market is the canonical instance of asymmetry in the knowledge dimension." } ], "information_cascade": [ { "child": "information_cascade", "parent": "herding_behavior", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "An information cascade is a kind of herding behavior in which actors sequentially copy predecessors' choices, overriding private information.", "reason": "An information cascade is a specialization of herding behavior: sequential actors place more weight on the visible aggregate of prior choices than on their own private signals, producing a chain in which each subsequent decision contributes little new information. It inherits herding's commitment to crowd-imitation under uncertainty and the resulting collective divergence from integrated-private-signal outcomes, particularized to the Bayesian-rational case Bikhchandani, Hirshleifer, and Welch formalized where copying is locally optimal given observed history." } ], "information_hiding": [ { "child": "information_hiding", "parent": "boundary", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Information hiding is a deliberately-drawn boundary with a controlled-access policy (concealed-side vs visible-side); it presupposes a boundary as its load-bearing element.", "reason": "Information hiding is a deliberately-drawn boundary with a controlled-access policy (concealed-side vs visible-side); it presupposes a boundary as its load-bearing element. Boundary supplies the prerequisite condition: Defines system limits. Information Hiding operates against that background: Deliberately concealing internal facts behind a stable public surface to control dependencies. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." }, { "child": "information_hiding", "parent": "abstraction", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Both present a simplified surface over a complex interior; frames hiding as a change-protection-motivated specialization adjacent to abstraction (which selects for comprehension).", "reason": "Both present a simplified surface over a complex interior; frames hiding as a change-protection-motivated specialization adjacent to abstraction (which selects for comprehension). Abstraction supplies the genus: Focus on core elements. Information Hiding preserves that general structure while adding its differentia: Deliberately concealing internal facts behind a stable public surface to control dependencies. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "information_locality": [ { "child": "information_locality", "parent": "asymmetry", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Information Locality becomes discriminating only when candidate owners differ in access to information material to the criterion they might own.", "reason": "If all candidate levels possessed the same relevant information, moving responsibility among them would create no information-locality consequence; unequal, non-interchangeable informational positions generate the placement constraint." } ], "information_scent": [ { "child": "information_scent", "parent": "search_and_retrieval", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Information scent is the cue-guided traversal mechanism within search that applies when the space is too large to enumerate and the goal is not directly perceptible.", "reason": "Information scent is the cue-guided traversal mechanism within search that applies when the space is too large to enumerate and the goal is not directly perceptible. 'the cue-guided traversal mechanism within search,' absent in exhaustive enumeration and direct retrieval. Presupposes the search-and-retrieval problem. Search and Retrieval supplies the prerequisite condition: Locate and extract information. Information Scent operates against that background: An agent navigates a partially-known space by reading local cues at decision points that predict the value of going further, with cue-destination correlation governing traversal efficiency. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "information_use_license": [ { "child": "information_use_license", "parent": "commitment", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "An Information Use License is the already-transmitted-information species of a present act binding future conduct to another party under release and breach terms.", "reason": "An Information Use License is the already-transmitted-information species of a present act binding future conduct to another party under release and breach terms. A recipient presently self-binds a future course on which a relying party may depend, with a before/after boundary, release conditions, and breach consequence. The bound future conduct is specifically the use, attribution, or disclosure of information the recipient has already received and cannot unlearn." } ], "inheritance": [ { "child": "inheritance", "parent": "dependency", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Inheritance is the specific dependency of a derivative on a parent ALONG A LINEAGE, with default carry-over and substitutability \u2014 a specialization of bare dependency ('not dependency in general').", "reason": "Inheritance is the specific dependency of a derivative on a parent ALONG A LINEAGE, with default carry-over and substitutability \u2014 a specialization of bare dependency ('not dependency in general'). Dependency supplies the genus: Directed relation in which one element relies on another being present, prior, compatible, or supplied, with a specifiable failure mode if the condition is unmet. Inheritance preserves that general structure while adding its differentia: Transmitting structure along a lineage by default, with selective override. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "inherited_substrate_risk": [ { "child": "inherited_substrate_risk", "parent": "dependency", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Inherited-substrate risk operates on a borrowed substrate the system relies on without re-deriving it; it presupposes a dependency relation and adds the audit-boundary asymmetry and latent origin condition.", "reason": "Inherited-substrate risk operates on a borrowed substrate the system relies on without re-deriving it; it presupposes a dependency relation and adds the audit-boundary asymmetry and latent origin condition. 'every inherited substrate is a dependency' but adds a direction-of-attention claim. Dependency supplies the prerequisite condition: Directed relation in which one element relies on another being present, prior, compatible, or supplied, with a specifiable failure mode if the condition is unmet. Inherited-Substrate Risk operates against that background: A system built on a borrowed or inherited substrate carries forward latent conditions of the substrate's origin through an inheritance channel that the new system's audit boundary does not cross, so the risk concentrates exactly where attention does not. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "injectivity": [ { "child": "injectivity", "parent": "function_mapping", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Injectivity is a Function Mapping specialized by the no-collision requirement that distinct inputs receive distinct outputs.", "reason": "Both have a declared domain, codomain, and single-valued assignment from inputs to outputs. Injectivity adds the strict differentia that no two distinct inputs share an output, yielding recoverability by a left inverse on the image. General Function Mappings may collide or leave distinctions unrecoverable, so the relation is strict subsumption." } ], "innovation_sandbox": [ { "child": "innovation_sandbox", "parent": "containment", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Innovation Sandbox presupposes Containment, whose structure must already obtain for the child mechanism to be meaningful or operational.", "reason": "Containment supplies the prerequisite condition: Holding a hazard, process, or agent within a deliberately maintained perimeter to prevent its spread or uncontrolled interaction with the surroundings. Innovation Sandbox operates against that background: A bounded enclosure where prohibited or untested behaviour runs without its consequences escaping. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "inoculation_theory": [ { "child": "inoculation_theory", "parent": "learning", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Inoculation is learning specialized to durable defensive updating from attenuated pre-exposure paired with successful response.", "reason": "Experience with a weakened threat changes retained internal state so later behavior or prediction resists the threat family; adaptive memory, generalization, and booster decay supply the child's differentia." } ], "input_partition": [ { "child": "input_partition", "parent": "conservation_laws", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Input Partition presupposes Conservation Laws because its defining closure requires the named output channels to account for the incident quantity without unexplained creation or loss.", "reason": "The split is closed only when every unit of incident quantity is assigned to one named output channel, including any explicitly modeled conversion or loss channel. Without conservation across the accounting boundary, the output amounts need not sum to the input and the complement or sum-to-one inference fails. Input Partition is the routing-and-closure operation; Conservation Laws supplies the invariant that makes that closure valid." } ], "input_pressure": [ { "child": "input_pressure", "parent": "flow", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Input Pressure is the externally sourced, sustained-rate specialization of Flow acting as load on a bounded receiving system.", "reason": "Flow supplies quantity per time across a boundary; Input Pressure fixes source externality, persistence, rate distribution, bounded response, and driver-side factoring. After the systems_cybernetics frame is stripped away, the retained structural roles are those of Flow: Structured movement of energy, matter, or information. Input Pressure adds the local frame and commitments expressed in its identity: A sustained external input rate acts as the load variable a bounded receiving system must absorb or respond to. The parent pattern remains recognizable without that vocabulary, while the child is the framed realization of it. That preservation test establishes decomposition rather than taxonomic subsumption." } ], "inquiry_based_learning": [ { "child": "inquiry_based_learning", "parent": "pedagogy", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Inquiry-based learning is a specific pedagogy in which the structured encounter takes the form of investigating questions like disciplinary practitioners.", "reason": "Inquiry-based learning is a specialization of pedagogy in which the instructional agent arranges the learner's encounter so that the learner formulates questions, plans investigations, gathers evidence, constructs explanations, and revises understanding \u2014 approximating disciplinary practice. It inherits pedagogy's commitment to deliberate, calibrated structuring of content engagement aimed at durable capability change, and adds the specific commitment that the structure mimics authentic inquiry rather than transmission, treating the learner's own investigative activity as the load-bearing mechanism through which the targeted capability is acquired." } ], "inquiry_change_learning_loop": [ { "child": "inquiry_change_learning_loop", "parent": "feedback", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "The loop contains feedback because observed consequences must return to alter the next model-guided action.", "reason": "The loop contains feedback because observed consequences must return to alter the next model-guided action. Cut the evidence return path and changes can be observed but cannot correct later understanding or action, destroying the loop. parent_in_child" }, { "child": "inquiry_change_learning_loop", "parent": "iteration", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "The loop contains iteration because revised practical and epistemic state is carried into a subsequent pass.", "reason": "The loop contains iteration because revised practical and epistemic state is carried into a subsequent pass. Remove recurrence with state carried forward and there is no cross-cycle accumulation, only a one-off action study. parent_in_child" }, { "child": "inquiry_change_learning_loop", "parent": "learning", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "The loop contains learning because evidence must durably update the retained model or capability that selects later action.", "reason": "The loop contains learning because evidence must durably update the retained model or capability that selects later action. Remove durable experience-driven model change and the process may react or regulate but does not conduct cumulative inquiry. parent_in_child" } ], "inspection_paradox": [ { "child": "inspection_paradox", "parent": "selection_bias", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Inspection paradox is the species of selection_bias where inclusion probability is PROPORTIONAL to the attribute being measured (encounter-based, length-weighted), giving a known mechanically-correctable bias E[L^2]/E[L].", "reason": "Inspection paradox is the species of selection_bias where inclusion probability is PROPORTIONAL to the attribute being measured (encounter-based, length-weighted), giving a known mechanically-correctable bias E[L^2]/E[L]. selection_bias is the parent. Selection Bias supplies the genus: Skewed sampling. Inspection Paradox preserves that general structure while adding its differentia: When sampling proceeds by encountering items rather than enumerating them, longer items are over-represented in proportion to their length. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "instability": [ { "child": "instability", "parent": "feedback", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Instability presupposes feedback because perturbations grow only when an amplification loop routes output back into input.", "reason": "Instability is the property whereby small perturbations grow rather than decay, characterized by an amplification mechanism that overcomes restorative or dissipative tendencies. This presupposes feedback: the structural arrangement in which a portion of a system's output is routed back to influence its subsequent input, with the sign and strength of coupling determining whether the loop opposes or reinforces. Positive feedback supplies exactly the amplification that turns small disturbances into growing deviations. Without a closed loop returning the system's behaviour to its own input, perturbations have no channel through which to compound into instability." }, { "child": "instability", "parent": "equilibrium", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Instability presupposes equilibrium because growth-rather-than-decay of small perturbations is defined relative to a reference state's balance.", "reason": "Instability is the property whereby small perturbations grow rather than decay, causing departure from a reference state. The construct is meaningful only relative to a specified reference state whose balance is being assessed, and the diagnostic is the failure of restorative mechanisms to dominate amplifying ones. Equilibrium supplies that reference state \u2014 the balance condition on a named set of quantities \u2014 against which perturbations are measured. Without an underlying equilibrium concept defining the balanced state and its restorative tendency, there would be nothing for instability to deviate from." } ], "institution": [ { "child": "institution", "parent": "role", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Roles are internal constituents of institutions, defining durable positions whose expectations persist across occupants.", "reason": "An institution is a durable, self-reproducing complex of rules, roles, and shared expectations that structures recurrent behavior beyond particular participants. Roles are internal constituents of that complex: each role defines a position with associated rights, duties, and expected conduct that remains stable as occupants change. Removing roles would eliminate the position-to-expectation structure through which an institution distributes action and reproduces itself across successive incumbents." }, { "child": "institution", "parent": "normativity", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "An institution presupposes normativity because its rules and roles only function when participants treat them as prescriptions to be followed and sanctioned.", "reason": "An institution is a self-reproducing complex of rules and roles whose force depends on participants treating its prescriptions as binding standards: deviations are sanctioned, expectations are reproduced across generations. This requires the normative dimension \u2014 the standing distinction between correct and incorrect conduct relative to a standard, with criticism and guidance keyed to it. Without normativity's ought-side architecture, institutional rules would be mere regularities with no enforcement logic and no basis for the expectation that participants ought to comply." } ], "institutional_lag": [ { "child": "institutional_lag", "parent": "institution", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Institutional lag presupposes institution because the temporal maladjustment it names occurs between fast-changing conditions and slow-adapting institutional rule systems.", "reason": "Institutional lag is the temporal maladjustment between rapidly changing material or technological conditions and the formal institutions \u2014 laws, regulators, bureaucratic procedures \u2014 that should govern them. The construction requires institutions in place as the slow-changing object whose adaptation is being measured. Institution supplies the durable self-reproducing rule-and-role complex whose stability gives it both durability and rigidity. Institutional lag is the consequence of that rigidity meeting accelerating change: the formal rule complex cannot adapt at the rate conditions demand, so it presupposes institutions as the slow-adapting reference body." }, { "child": "institutional_lag", "parent": "adaptation", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Institutional lag presupposes adaptation because the diagnosis only makes sense against the expectation that institutions ought to adapt to changed conditions.", "reason": "Institutional lag names the temporal maladjustment between fast-changing material conditions and slow-changing formal rule systems, which is intelligible only against the prior commitment that institutions ought to adapt to track the conditions they govern. Without adaptation's machinery \u2014 the process by which a system modifies internal structure in response to sustained environmental change \u2014 there would be no benchmark against which lag could be measured. Adaptation supplies the expected fit-tracking behavior whose absence or delay the lag pattern diagnoses." }, { "child": "institutional_lag", "parent": "culture_lag", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Institutional lag presupposes culture lag because mismatched adaptation rates between formal institutions and material conditions instantiate the general culture-lag pattern.", "reason": "Institutional lag names the temporal maladjustment between fast-changing material conditions and slower-changing formal institutions like laws and regulatory bodies. This is a particular case of the broader culture-lag pattern in which a society's components change at different rates, producing strain when faster components outpace slower dependents. Culture lag supplies the general structural commitment \u2014 differential adaptation rates across coupled components \u2014 that institutional lag instantiates with formal rule systems as the slow-changing side. Without the general lag pattern, the institutional case loses its analytical frame." } ], "instrument_interpretive_drift": [ { "child": "instrument_interpretive_drift", "parent": "temporal_decay_and_degradation", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "A time-dependent, correlated (non-zero-mean) drift of a measurement instrument's interpretive practice while its stated spec stays fixed \u2014 a specialization of temporal degradation applied to interpretive calibration (vs a static bias removable by one calibration).", "reason": "A time-dependent, correlated (non-zero-mean) drift of a measurement instrument's interpretive practice while its stated spec stays fixed \u2014 a specialization of temporal degradation applied to interpretive calibration (vs a static bias removable by one calibration). Temporal Decay and Degradation supplies the genus: System properties or capabilities systematically diminish over time. Instrument Interpretive Drift preserves that general structure while adding its differentia: A measurement instrument's interpretive practice silently shifts over time while its stated specification stays fixed, contaminating longitudinal trends. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "integer_linear_programming_ilp": [ { "child": "integer_linear_programming_ilp", "parent": "linear_programming_lp", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Integer Linear Programming is Linear Programming specialized by integrality restrictions on some or all decision variables.", "reason": "Integer Linear Programming retains Linear Programming's linear objective and linear constraint system while adding the differentia that some or all decision variables must take integer values. Dropping that restriction yields the corresponding continuous LP relaxation. ILP therefore inherits its optimization and internal-constraint structure through LP rather than repeating those broader heads directly." }, { "child": "integer_linear_programming_ilp", "parent": "discreteness", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Integer linear programming presupposes discreteness because the integrality restriction on decision variables imposes the separated-states structure on the feasible set.", "reason": "Integer linear programming is defined by adding to linear programming the requirement that some or all decision variables take integer values, which is precisely the discreteness commitment: the variables range over an enumerable set of separated states rather than a continuum. Without discreteness's machinery \u2014 the separated-states property that admits enumeration and combinatorial reasoning \u2014 there would be no integrality to impose and the problem would collapse back to continuous linear programming. The Discreteness prime supplies the separated-states structure that integer programming requires for its yes/no, on/off, and assignment decisions." } ], "interface": [ { "child": "interface", "parent": "boundary", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "An interface is the specific shape boundary takes when it adds an explicit contract specifying what crosses, what is hidden, and what guarantees hold on each side.", "reason": "An interface is the particularization of boundary to a setting where the demarcation between systems carries an explicit exchange protocol: a contract specifying exposed surfaces, hidden internals, signal types, and side-specific guarantees. Where boundary names the conceptual demarcation between an entity and its outside generally, interface fixes the boundary as bilateral and structured: it adds asymmetric visibility, formal protocol, and the commitment that each side can evolve independently provided the contract is honored \u2014 a richer particular form of the boundary pattern." } ], "interface_mismatch": [ { "child": "interface_mismatch", "parent": "interface", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "A rule-governed exchange surface is the internal locus at which an interface mismatch's offered and required contracts fail to align.", "reason": "Interface Mismatch contains an Interface as its defining locus. The parent supplies two sides, a bounded exchange surface, and an interaction contract; the child adds an offered-versus-required contract gap that prevents composition even though each side may remain locally workable." } ], "interfacial_energy": [ { "child": "interfacial_energy", "parent": "boundary", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Interfacial energy is the per-unit-area COST a boundary carries while it exists \u2014 it presupposes a boundary (the line) and prices it.", "reason": "Interfacial energy is the per-unit-area COST a boundary carries while it exists \u2014 it presupposes a boundary (the line) and prices it. 'a boundary is the static line; interfacial energy is the pressure on that line.' Presupposes-parent. Boundary supplies the prerequisite condition: Defines system limits. Interfacial Energy operates against that background: A per-unit-boundary cost that scales with seam length rather than bulk, driving systems toward configurations with less total boundary unless opposed. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "interference_and_contention": [ { "child": "interference_and_contention", "parent": "constraint", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Interference and contention is a specific kind of constraint, where shared-resource competition restricts admissible concurrent throughput.", "reason": "Interference and contention is a specialization of constraint. The general pattern restricts admissible configurations to those satisfying a binding condition, with the feasible set as a first-class object. Contention instantiates this with the binding condition being shared-resource capacity: when multiple processes demand a single resource, only a subset of concurrent access patterns are admissible, and exceeding capacity produces measurable degradation. It is constraint operating dynamically at the resource bottleneck: the resource's capacity binds the joint feasible region of concurrent demands, producing latency increases and dropped transactions when the bound is approached." }, { "child": "interference_and_contention", "parent": "concurrency", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Interference and contention presupposes concurrency because mutual interference among shared-resource consumers requires the consumers to proceed in overlapping time.", "reason": "Interference and contention presupposes concurrency because its mechanism is multiple simultaneous demands competing for the same limited resource: take away the time-overlapping execution and contention disappears, since sequential consumers would each get the resource in turn without mutual interference. Concurrency supplies the structural condition of overlapping loci of activity with their attendant ordering and coordination problems; contention names what happens when those overlapping activities collide on a bottleneck and degrade each other's latency, throughput, or quality." }, { "child": "interference_and_contention", "parent": "scarcity", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Interference and contention presupposes scarcity because competing demands for a single limited resource is the contention dynamic scarcity induces.", "reason": "Interference and contention presupposes scarcity because the degradation pattern -- mutual interference, queueing, dropped throughput -- arises only when simultaneous demands exceed a shared resource's capacity, which is exactly scarcity's defining condition. Without finite supply relative to demand, parallel processes do not contend; they simply proceed. Contention is scarcity manifesting at the operational interface where each consumer's presence reduces capacity for the others, making the allocation problem visible as latency rather than as price. Scarcity supplies the prerequisite condition: A finite resource is insufficient to satisfy all competing wants. Interference and Contention operates against that background: Competing demands for shared bottleneck degrade throughput. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "interior_lines": [ { "child": "interior_lines", "parent": "positional_advantage", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Interior Lines is a specialization of Positional Advantage, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Positional Advantage supplies the genus: Occupying a location in a value-graded space such that the position itself confers advantage \u2014 leverage, reach, defensibility, reaction-time \u2014 independent of the resources or force held at that location. Interior Lines preserves that general structure while adding its differentia: A centrally-positioned actor with shorter paths to multiple fronts converts a positional property into a reaction-time advantage, reallocating a shared reservoir faster than a dispersed periphery can coordinate. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "interleaving": [ { "child": "interleaving", "parent": "multiplexing", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Interleaving is a specialization of multiplexing in which the dividing dimension is sequential order rather than a physical channel split.", "reason": "Interleaving is a specialization of multiplexing in which the dividing scheme is time-order within a single sequence: multiple logically distinct item-streams share one resource by alternating their slots rather than each owning a contiguous run. It inherits the general multiplexing commitment of many logical channels over one physical substrate, with the resource partitioned so streams remain non-interfering and a reverse operation can separate them. Its distinctive specialization is that the dividing dimension is fine-grained sequential interleave, which buys the discrimination-forcing and fault-scattering properties characteristic of the pattern." } ], "intermittency": [ { "child": "intermittency", "parent": "rhythm", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Intermittency presupposes rhythm because identifying bursts as exceptional requires a baseline expectation of patterned recurrence against which they register as exceptional.", "reason": "Intermittency presupposes rhythm because its central claim is that activity is dominated by rare bursts separated by long quiet intervals, which only registers as a structural pattern against an implicit expectation of how events should be distributed in time. Rhythm supplies that expectation: it organizes time into a parsable frame of grouping, accent, and interval, against which deviations stand out. Without a rhythmic background frame defining what counts as on-time or as smooth flow, the burst-and-quiet signature collapses into mere unstructured variation with nothing to mark its exceptionality." }, { "child": "intermittency", "parent": "heavy_tailed_distributions", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Intermittency is a specialization of heavy-tailed distributions in which rare high-amplitude bursts dominate an otherwise quiescent signal.", "reason": "Intermittency is a specialization of heavy-tailed distributions. Specifically, it instantiates the rare-extremes-dominate-aggregates pattern in the time-series subclass: signal amplitude distributions exhibit heavy tails (flatness above 3, burst clustering, multifractal spectra) so that quiet periods contribute little to totals while sporadic bursts contribute most of the variance and higher moments. Like other heavy-tailed phenomena, it inverts the assumption that the bulk governs behavior; intermittency is the temporal subclass where burst-and-quiet cycling makes the dominance of rare events visible as activity profile." } ], "internal_intensification": [ { "child": "internal_intensification", "parent": "trade_offs", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Internal intensification is a structured trade-off between two qualitatively distinct cost structures (densify-within-boundary vs expand-boundary).", "reason": "Internal intensification is a structured trade-off between two qualitatively distinct cost structures (densify-within-boundary vs expand-boundary). concedes 'a pure capacity-cost comparison with no boundary at stake is ordinary trade_offs' \u2014 this prime is the boundary-laden specialization. Trade-offs supplies the genus: Balancing competing priorities. Internal Intensification preserves that general structure while adding its differentia: A system needing more capacity densifies, deepens, or re-uses underused positions inside its existing boundary before expanding the boundary outward, a choice between two qualitatively different cost structures that compounds over the trajectory of growth. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "interoperability": [ { "child": "interoperability", "parent": "modularity", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Interoperability is a specific kind of modularity, requiring components to compose via shared interface specifications.", "reason": "Interoperability is a specialization of modularity. The general pattern decomposes a system into discrete components with stable interfaces defining what each provides and depends on, enabling independent design and modification. Interoperability instantiates this across system boundaries: distinct, independently-designed systems can compose and cooperate provided they conform to shared specifications, moving from one-off integration to systematic compatibility. The shared protocol or standard is the stable interface; conformance is the modularity commitment extended across organizational and implementation boundaries. It is modularity as the ecosystem-level capacity for any two protocol-conforming systems to interoperate." }, { "child": "interoperability", "parent": "compatibility", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Interoperability is a specialization of compatibility that achieves cross-system function through shared standards rather than pairwise adaptation.", "reason": "Interoperability is a specialization of compatibility. Specifically, it instantiates the relational coexist-and-compose-without-breakage property by routing the alignment through explicitly agreed-upon standards, interfaces, or protocols, so that any two systems conforming to the spec can communicate and coordinate. Where compatibility names the broad condition that entities can interact without contradiction, interoperability is the engineered subclass where the alignment is achieved systematically and scalably via shared specifications rather than one-off bridges between particular pairs." } ], "interpretation": [ { "child": "interpretation", "parent": "representation", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Interpretation presupposes representation because recovering meaning from a substrate requires that substrate already encode something interpretable.", "reason": "Interpretation is the activity of recovering meaning, intent, or applicable function from a representational substrate \u2014 sign, text, dataset, behavior, trace \u2014 within a framework that makes some readings available and others not. The operation presupposes a representation: a structured mapping where features of the medium correspond to features of a target under some convention. Representation supplies that substrate with its faithfulness claim. Without an underlying representation carrying encoded structure, interpretation would have nothing to decode and no convention against which to test the legitimacy of a reading." } ], "intersection": [ { "child": "intersection", "parent": "set_and_membership", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "'Set-and-membership supplies the collections and the \u2208 test; intersection is one OPERATION on them.' Intersection presupposes the set apparatus and adds the simultaneous-AND combiner.", "reason": "'Set-and-membership supplies the collections and the \u2208 test; intersection is one OPERATION on them.' Intersection presupposes the set apparatus and adds the simultaneous-AND combiner. Set and Membership supplies the prerequisite condition: Groups and categorizes elements. Intersection operates against that background: The elements common to all of several collections. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "intervention_coupled_harm": [ { "child": "intervention_coupled_harm", "parent": "coupling", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "'this prime is the specific coupling of a beneficial mechanism's output to a harmful output through one inseparable step' \u2014 a specialization of coupling.", "reason": "'this prime is the specific coupling of a beneficial mechanism's output to a harmful output through one inseparable step' \u2014 a specialization of coupling. The 0.858 nearest neighbour is coupling, the genuine genus (here child-not-parent). Coupling supplies the genus: Interdependence among subsystems. Intervention-Coupled Harm preserves that general structure while adding its differentia: A beneficial intervention produces its harm through the same causal channel that produces its benefit, so the two cannot be tuned apart. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." }, { "child": "intervention_coupled_harm", "parent": "trade_offs", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Sharper case of trade_offs where the harm-benefit ratio is FIXED BY THE mechanism (not independently dialable).", "reason": "Sharper case of trade_offs where the harm-benefit ratio is FIXED BY THE mechanism (not independently dialable). frames it explicitly against generic trade_offs. Trade-offs supplies the genus: Balancing competing priorities. Intervention-Coupled Harm preserves that general structure while adding its differentia: A beneficial intervention produces its harm through the same causal channel that produces its benefit, so the two cannot be tuned apart. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." }, { "child": "intervention_coupled_harm", "parent": "side_effect", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "The harm is by definition a state change outside the intervention's declared benefit interface, riding the same channel as the benefit.", "reason": "The harm is by definition a state change outside the intervention's declared benefit interface, riding the same channel as the benefit. Side Effect supplies the genus: An action's change to shared state beyond its declared interface. Intervention-Coupled Harm preserves that general structure while adding its differentia: A beneficial intervention produces its harm through the same causal channel that produces its benefit, so the two cannot be tuned apart. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "intervention_induced_model_invalidation": [ { "child": "intervention_induced_model_invalidation", "parent": "reflexivity_self_reference", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Intervention-Induced Model Invalidation is Reflexivity specialized to a model or calibrated relationship becoming an input to the represented system and thereby undermining its own validity.", "reason": "The representation enters the causal loop: it selects, justifies, or parameterizes an intervention; affected actors or mechanisms respond; and the relationship the representation encoded changes. Reflexivity is broader and also includes self-fulfilling stabilization, recursive representation, and self-reference that need not invalidate a model." }, { "child": "intervention_induced_model_invalidation", "parent": "concept_drift", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Intervention-Induced Model Invalidation is Concept Drift specialized to endogenous change caused by deploying an action based on the calibrated rule itself.", "reason": "It retains Concept Drift's learned relationship, calibration regime, stationarity assumption, changed input-outcome mapping, and silent loss of validity. It adds a causal restriction: the shift is produced by the intervention or control action whose justification depended on that relationship, rather than by an independently moving world." } ], "intervention_stack_accretion": [ { "child": "intervention_stack_accretion", "parent": "ratchet_effect", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Intervention Stack Accretion is a specialization of Ratchet Effect, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Ratchet Effect supplies the genus: Direction-asymmetric coupling plus a locking element produces accumulating one-way displacement under bidirectional forcing. Intervention Stack Accretion preserves that general structure while adding its differentia: A system accumulates concurrently active interventions, each justified at add-time, whose joint cost grows super-linearly and whose removal requires a distinct named operation. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "intrinsic_ceiling_vs_input": [ { "child": "intrinsic_ceiling_vs_input", "parent": "dose_response_relationship", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Intrinsic Ceiling vs Input strictly presupposes a response mapping from which its independent ceiling and input-to-approach coordinates are read.", "reason": "Every admissible instance in the prime's identity has quantifiable input, response, an asymptote, and an EC50-like position. The source calls the dose-response curve the empirical object and the prime the decision discipline read from it; no exception is supplied that lacks the mapping. The inherited typical qualifier therefore understates a strict identity dependency." } ], "invasive_species": [ { "child": "invasive_species", "parent": "release_from_controlling_context", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Invasive_species is the ecology-specific child; this is the substrate-general parent covering virgin-soil epidemics, financial-instrument export, platform diffusion, regulatory arbitrage.", "reason": "Invasive_species is the ecology-specific child; this is the substrate-general parent covering virgin-soil epidemics, financial-instrument export, platform diffusion, regulatory arbitrage. Release From Controlling Context supplies the genus: An actor's intrinsic dynamics, calibrated by a home context's constraints, run unconstrained when moved to a recipient context lacking them. Invasive Species preserves that general structure while adding its differentia: A newcomer enters a system whose native controls are absent or weak against it, and outpaces them to spread and displace incumbents before the system can adapt. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "inversion": [ { "child": "inversion", "parent": "symmetry", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Inversion is a specific kind of symmetry, reversing a relation or sequence while preserving some underlying equivalence.", "reason": "Inversion is a specialization of symmetry. The general pattern is invariance under a specified group of transformations, with the algebraic commitment that the transformation leaves a stated feature unchanged. Inversion instantiates this with the transformation being reversal (of a relation, sequence, or dependency chain), and the preserved feature being some underlying element or equivalence (composition with the inverse returns the identity). Jacobi's invert-always-invert heuristic exploits the fact that the inversion transformation belongs to the symmetry group of the structure, so working in the inverted regime is mathematically equivalent for many purposes." }, { "child": "inversion", "parent": "reversibility_and_irreversibility", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Inversion presupposes reversibility because reversing a relation, sequence, or dependency requires that the operation admits an inverse.", "reason": "Inversion reverses a relation, sequence, or structure, producing the dual or converse form. This presupposes reversibility: the structural property of whether an action or transition can be undone or restored, with reversibility-as-option distinguished from irreversibility-as-commitment. Inversion can be applied only to relations and operations that admit an inverse; an irreversible process cannot be inverted in the operational sense, only reasoned about counterfactually. The existence of R^(-1) given R, and the preservation under composition with the inverse, are exactly the structural conditions reversibility names." }, { "child": "inversion", "parent": "transformation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Inversion is a specialization of transformation that reverses a relation, sequence, or dependency structure while preserving underlying equivalence.", "reason": "Inversion is a specialization of transformation. Specifically, it instantiates the input-rule-output mapping where the rule reverses a relation, sequence, or dependency chain (R to R-inverse, or a structure to its dual), preserving certain elements or equivalences while altering relational direction. Like other transformations, it specifies what is preserved (the underlying equivalence) and what is reshaped (the order, direction, or dependency); inversion is the subclass whose reshaping operation is reversal itself, generating regimes whose dynamics differ from the unreversed case." } ], "inverted_pyramid": [ { "child": "inverted_pyramid", "parent": "prioritization", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "The inverted pyramid is prioritization PLUS the structural commitment to truncation-resilience: it takes an importance ranking and arranges the artifact so any prefix carries the load-bearing content and degrades gracefully.", "reason": "The inverted pyramid is prioritization PLUS the structural commitment to truncation-resilience: it takes an importance ranking and arranges the artifact so any prefix carries the load-bearing content and degrades gracefully. 'prioritization ranks; the pyramid arranges for truncation-resilience.' Presupposes the ranking and adds the truncation envelope and graceful-degradation invariant. Prioritization supplies the prerequisite condition: Ordering competing claims on finite resources by a value or urgency metric to produce a ranked sequence of action under constraint, making explicit what gets done first and what does not get done at all. Inverted Pyramid operates against that background: A communication ordered so the most decision-relevant content appears first, in decreasing order of importance, degrading gracefully under truncation from the bottom. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "inverted_u_response": [ { "child": "inverted_u_response", "parent": "nonlinearity", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "The inverted-U is a single-peaked non-monotone (hence nonlinear) response shape with an interior optimum where the first derivative is zero.", "reason": "The inverted-U is a single-peaked non-monotone (hence nonlinear) response shape with an interior optimum where the first derivative is zero. It is a specialization of nonlinearity (disproportionate, non-proportional output)." } ], "invisible_affordance": [ { "child": "invisible_affordance", "parent": "affordance", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Every Invisible Affordance is a genuine affordance whose action-possibility exists but is absent from every surface the prospective user reliably samples.", "reason": "Invisible Affordance inherits Affordance's real agent-environment fit: the capability genuinely supports an action for the relevant user. It adds an announcement apparatus, a sampled-surface set, and a mismatch that excludes the real option from the user's perceived option set. An invisible affordance cannot lack the underlying affordance, while ordinary affordances may be visible; the relation is therefore strict one-way specialization rather than a sibling analogy." } ], "irreducible_floor": [ { "child": "irreducible_floor", "parent": "constraint", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "The floor 'is a constraint, formally a binding inequality at the optimum' but adds the two-level structure (intra-regime vs structural lever) the general constraint concept does not carry.", "reason": "The floor 'is a constraint, formally a binding inequality at the optimum' but adds the two-level structure (intra-regime vs structural lever) the general constraint concept does not carry. It is a specialization of constraint, specialized to a mechanism-generated bound that transfers variance when over-driven. Constraint supplies the genus: Limits possibilities to guide outcomes. Irreducible Floor preserves that general structure while adding its differentia: A quantity of interest has a structural lower (or upper) bound that the available proximate levers cannot push past without inducing pathology elsewhere, because the floor is a consequence of the system's generating mechanism rather than a target the operator chose. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "irreversibility": [ { "child": "irreversibility", "parent": "reversibility_and_irreversibility", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Irreversibility is a specialization of reversibility-and-irreversibility focused specifically on the one-way pole of the dual structure.", "reason": "Irreversibility is a specialization of the broader reversibility-and-irreversibility structure, isolating the case where the process has a privileged direction and restoration to the prior state is structurally precluded without compensating environmental change. It inherits the general framework of whether system transitions can be undone and specializes by fixing the answer to one-way: entropy increase, lost information, broken-symmetry selections, sunk costs that cannot be recovered. The reversibility-irreversibility pair frames the dual options; irreversibility names the commitment pole \u2014 locked-in resources, closed pathways, thermodynamic or practical infeasibility of return." } ], "isomorphism": [ { "child": "isomorphism", "parent": "bijectivity", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Isomorphism is Bijectivity specialized by two-sided preservation of the named operations, relations, order, topology, or other structure.", "reason": "Every isomorphism is a one-to-one and onto mapping with a unique inverse. It adds the strict differentia that both the mapping and its inverse preserve the structure declared for the objects. Arbitrary bijections need preserve only cardinality, so Bijectivity is the immediate set-level genus." }, { "child": "isomorphism", "parent": "invariance", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Isomorphism presupposes invariance because a structure-preserving bijection is the family of transformations under which the structure is preserved.", "reason": "Isomorphism presupposes invariance because the structure-preservation requirement on the bijection -- group operation, graph adjacency, vector-space linearity, topology -- is exactly the joint commitment to a named preserved feature under a named family of transformations. The isomorphism is the transformation, and the preserved structure is what makes it an isomorphism of that kind rather than a mere bijection. Without invariance's framing of preserved-feature-under-operations, there is no criterion separating structure-preserving maps from arbitrary set-bijections. Invariance supplies the prerequisite condition: Properties unchanged under transformation. Isomorphism operates against that background: Structure-preserving mapping. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "jevons_paradox": [ { "child": "jevons_paradox", "parent": "efficiency_rebound", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Jevons Paradox is the more-than-full Efficiency Rebound region in which demand expansion reverses the sign and raises total resource use.", "reason": "It inherits the efficiency gain, effective-cost reduction, expandable demand, aggregate recombination, and graded offset. It adds the strict magnitude condition that rebound exceeds 100 percent, so total input use rises rather than merely falling less than expected." } ], "joint_attention": [ { "child": "joint_attention", "parent": "attention", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Joint attention is not 'more attention' but a second-order multi-agent relation BUILT ON attention ('built on top of it') \u2014 two+ attenders plus mutual registration.", "reason": "Joint attention is not 'more attention' but a second-order multi-agent relation BUILT ON attention ('built on top of it') \u2014 two+ attenders plus mutual registration. It presupposes attention; it does not subsume it. Attention supplies the prerequisite condition: The selective allocation of a fixed processing capacity to some inputs while the rest are filtered out, surfacing scarcity upstream of every decision. Joint Attention operates against that background: Two or more agents share an attentional target and each knows the other attends to it. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "joint_vs_separate_evaluation": [ { "child": "joint_vs_separate_evaluation", "parent": "evaluation", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Joint-vs-Separate Evaluation presupposes Evaluation because it is a mode effect defined over procedures that map criteria and attributes into verdicts.", "reason": "The phenomenon cannot occur without an Evaluation: both joint and separate modes evaluate the same bounded options, but each mode changes the criterion frame by making a different subset of attributes evaluable and therefore can change the verdict. Evaluation supplies the common operation on which the mode toggle acts. Comparison remains foundational through Evaluation; the old direct edge was a flattened shortcut and was only typical because comparison is engaged explicitly in joint mode but suppressed in separate mode." }, { "child": "joint_vs_separate_evaluation", "parent": "context_dependent_preference", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Joint versus Separate Evaluation is the evaluation-procedure species in which simultaneous comparison changes attribute evaluability and can reverse judgments.", "reason": "Joint versus Separate Evaluation is the evaluation-procedure species in which simultaneous comparison changes attribute evaluability and can reverse judgments. The evaluated objects remain fixed while a change in their comparison context changes their ordering or valuation. The manipulated context is whether alternatives are evaluated together or separately, and the mechanism is mode-dependent attribute evaluability." } ], "journalistic_objectivity": [ { "child": "journalistic_objectivity", "parent": "procedural_fairness_due_process", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Frames detached verification as the SUBCLASS of procedural_fairness_due_process aimed specifically at neutralizing an interested party's path to the verifier ('procedural fairness is the genus; detached verification is the conflict-of-interest-cutting species').", "reason": "Frames detached verification as the SUBCLASS of procedural_fairness_due_process aimed specifically at neutralizing an interested party's path to the verifier ('procedural fairness is the genus; detached verification is the conflict-of-interest-cutting species'). A specialization. Procedural Fairness (Due Process) supplies the genus: Due process. Journalistic Objectivity preserves that general structure while adding its differentia: A claim is licensed by a procedure whose authority depends on holding the verifier structurally outside the interests at stake, so preferred-outcome leakage is made expensive. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "juxtaposition": [ { "child": "juxtaposition", "parent": "comparison", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Juxtaposition is a specialization of comparison in which proximity placement is the alignment rule and relational reading is the output.", "reason": "Juxtaposition is a kind of comparison specialized by its alignment mechanism: placing elements in close spatial, temporal, or conceptual proximity so that their relational reading becomes the primary content-carrying feature. It inherits comparison's commitment to placing items under a shared frame with an alignment rule that yields a relational output, and supplies the specific case where the alignment rule is unmediated adjacency and the output is whatever meaning, contrast, or connection the audience derives from the bare pairing without explicit comparative markers." }, { "child": "juxtaposition", "parent": "contrast", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Juxtaposition presupposes contrast because relational placement of elements derives its content from the perceptually emphasized differences between them.", "reason": "Juxtaposition presupposes contrast because placing elements in close proximity produces relational content only when the difference between them is perceptually or cognitively detectable as emphasized. Without contrast's mechanism of foregrounding differences against a background of less-prominent features, mere co-location of elements would not produce meaning beyond the elements themselves. Contrast supplies the difference-detection that makes the bare adjacency content-bearing; juxtaposition is then the specific compositional move that arranges elements to exploit that contrast as the primary message." } ], "kairos": [ { "child": "kairos", "parent": "temporal_dynamics", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Kairos is the specific structure within temporal_dynamics where action effectiveness is conditional on a transient receiving-system state the actor must detect and reach within.", "reason": "Kairos is the specific structure within temporal_dynamics where action effectiveness is conditional on a transient receiving-system state the actor must detect and reach within. 'temporal_dynamics is the broad study; kairos is the specific structure.' A specialization. Temporal Dynamics supplies the genus: System outcomes depend fundamentally on timing, sequencing, duration. Kairos preserves that general structure while adding its differentia: An action's effectiveness depends not on its own quality but on its alignment with a transient state of the receiving system \u2014 a window that opens and closes. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "keynesian_beauty_contest": [ { "child": "keynesian_beauty_contest", "parent": "coordination_problem_and_equilibrium_selection", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "The beauty contest is a coordination game, but a peculiar one whose target is RECURSIVE (the population's own expectation) rather than an exogenous landmark.", "reason": "The beauty contest is a coordination game, but a peculiar one whose target is RECURSIVE (the population's own expectation) rather than an exogenous landmark. A specialization of coordination_problem_and_equilibrium_selection where the focal point is a belief about a belief. Coordination Problem and Equilibrium Selection supplies the genus: Multiple stable equilibria require alignment on single outcome. Keynesian Beauty Contest preserves that general structure while adding its differentia: The rational choice is not what you most prefer, nor what you think others prefer, but what you think others believe others will choose. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "last_mile_delivery": [ { "child": "last_mile_delivery", "parent": "economies_of_scale", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Last Mile Delivery contains upstream Economies of Scale whose shared trunk amortizes cost across volume, creating the cost contrast that makes endpoint delivery disproportionately expensive.", "reason": "The pattern requires a consolidated upstream channel whose average cost falls as shared volume amortizes fixed coordination, transport, or infrastructure. Removing those trunk economies erases both the trunk-versus-endpoint contrast and the growing-share invariant by which upstream improvement makes the last mile more dominant. Economies of Scale is therefore a constituent of the mechanism, not a claim that last-mile work itself enjoys scale economies." }, { "child": "last_mile_delivery", "parent": "variability", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Last Mile Delivery contains endpoint Variability because differences in location, access, timing, language, infrastructure, behavior, or trust defeat the trunk's consolidation logic.", "reason": "The final segment must adapt separately to heterogeneous endpoints, and its cost scales with their cross-instance differences rather than with trunk volume. If endpoints are interchangeable, the shared channel can extend to them and the characteristic last-mile concentration disappears. Variability is thus a load-bearing constituent, while Last Mile Delivery adds the consolidated trunk, interface adaptation, and growing cost-share relation." } ], "last_mile_failure": [ { "child": "last_mile_failure", "parent": "bottleneck", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Last-Mile Failure is typically a specialization of Bottleneck, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Bottleneck supplies the genus: The single limiting stage that caps an entire system's throughput. Last-Mile Failure preserves that general structure while adding its differentia: A distribution network's per-unit cost, latency, and failure rate spike at the final stage where its geometry fans out from few-trunks-carrying-much to many-leaves-each-carrying-little, so upstream throughput overstates endpoint coverage. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "latency": [ { "child": "latency", "parent": "constraint", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Latency is a specific kind of constraint, binding system response time below an irreducible transit minimum.", "reason": "Latency is a specialization of constraint. The general pattern restricts admissible configurations to those satisfying a binding condition, with the feasible set as a first-class object. Latency instantiates this with the binding condition being the irreducible time interval between stimulus and observable response: no configuration can produce a response faster than the transit cost through the channel or pathway. The bound is physical (signal propagation, processing time, dead time) rather than statistical, and it partitions the achievable response-time region. It is constraint operating along the time dimension as an irreducible lower bound on signal transit." }, { "child": "latency", "parent": "time", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Latency presupposes time because the irreducible interval between stimulus and response is a temporal duration measured along time's ordering.", "reason": "Latency is the irreducible time interval between stimulus and observable response \u2014 the transit cost of a single signal through a channel or process. The construct is constitutively temporal: it measures the gap between an input event and its corresponding output event along the earlier-to-later dimension. Time supplies that ordering with measurable duration and irreversible succession. Without time as a structural foundation, there would be no interval to measure, no past input distinct from present output, and no characteristic delay distinguishing latency from throughput." } ], "latent_service_bundle": [ { "child": "latent_service_bundle", "parent": "aggregation", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "The bundle's invisibility is a per-category accounting frame failing to aggregate across heterogeneous categories \u2014 it presupposes the aggregation operation (and critiques its absence across categories).", "reason": "The bundle's invisibility is a per-category accounting frame failing to aggregate across heterogeneous categories \u2014 it presupposes the aggregation operation (and critiques its absence across categories). Loosely held; the prime is more a valuation-discipline than an aggregation specialization." } ], "lateral_inhibition": [ { "child": "lateral_inhibition", "parent": "figure_ground", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Lateral inhibition presupposes figure-ground because suppressing neighbors to amplify a winner is the mechanism by which figure separates from ground.", "reason": "Lateral inhibition has activated elements suppress their neighbours, amplifying local differences so a single winner or sharp boundary emerges from a field of competitors. This presupposes figure-ground: the structural organization of a perceptual field into a salient figure and a recessive ground, with reciprocal mutually-exclusive assignment in which the boundary belongs to the figure. The neighbour-suppression dynamic is the computational mechanism by which a distributed system manufactures the figure-ground assignment: the more strongly an element is excited, the harder it pushes neighbours toward ground, producing the bounded shaped figure that pops out from formless context." }, { "child": "lateral_inhibition", "parent": "feedback", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Lateral inhibition presupposes feedback because peer-to-peer mutual suppression is a closed loop in which each element's activity controls its neighbors' inputs.", "reason": "Lateral inhibition operates as mutual sideways suppression among peers: the more strongly an element is excited, the harder it pushes its neighbours down. This presupposes feedback: the structural arrangement in which a portion of a system's output is routed back to influence subsequent input, closing a loop between cause and effect. Each element's activity becomes a (negative-signed) input to its neighbours' subsequent state. The contrast-enhancing dynamic that produces edges and winners depends on the closed mutual loop; without feedback's routing of output back into input, peer suppression has no mechanism by which to act on the field." }, { "child": "lateral_inhibition", "parent": "contrast", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Lateral inhibition presupposes contrast because its sideways suppression mechanism exists to amplify local differences into sharp boundaries.", "reason": "Lateral inhibition presupposes contrast because its functional role is precisely the construction of perceptual contrast: an activated element suppresses its neighbors, so that local differences are amplified into edges, peaks, and crisp boundaries from a smooth gradient. Contrast supplies the general structural notion that meaning, identity, and discrimination emerge through emphasized differences between elements; lateral inhibition is one distributed mechanism by which a system manufactures that discreteness without central control. Without contrast as the goal-state, mutual sideways suppression has no purpose." }, { "child": "lateral_inhibition", "parent": "inhibition", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Lateral_inhibition is the specific SPATIAL arrangement (active units suppress neighbours to sharpen contrast) of the general applied block; plain inhibition makes no spatial/contrast commitment.", "reason": "lateral_inhibition is the specific SPATIAL arrangement (active units suppress neighbours to sharpen contrast) of the general applied block; plain inhibition makes no spatial/contrast commitment. inhibition is the substrate-general parent. The 0.9087 similarity resolves to parent-of, not duplicate." } ], "law_of_conservation_of_complexity": [ { "child": "law_of_conservation_of_complexity", "parent": "complexity", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "The law presupposes complexity (the quantity it conserves) and adds two specific claims \u2014 an irreducible FLOOR and a SHIFT relation that relocates burden without lowering the total.", "reason": "The law presupposes complexity (the quantity it conserves) and adds two specific claims \u2014 an irreducible FLOOR and a SHIFT relation that relocates burden without lowering the total. complexity is the embedding-nearest (0.95) and the quantity the prime is about but not identical to. Complexity supplies the prerequisite condition: Measures system intricacy. Law of Conservation of Complexity operates against that background: Every problem has an irreducible complexity floor that design can shift between parties or moments but cannot reduce below the floor. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." }, { "child": "law_of_conservation_of_complexity", "parent": "trade_offs", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Tesler's law is adjacent to trade_offs but is CONSERVATION not exchange (file 'Not': it conserves the SAME quantity across an interface rather than swapping one good for another).", "reason": "Tesler's law is adjacent to trade_offs but is CONSERVATION not exchange (file 'Not': it conserves the SAME quantity across an interface rather than swapping one good for another). Trade-offs supplies the prerequisite condition: Balancing competing priorities. Law of Conservation of Complexity operates against that background: Every problem has an irreducible complexity floor that design can shift between parties or moments but cannot reduce below the floor. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "law_of_large_numbers": [ { "child": "law_of_large_numbers", "parent": "convergence", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "The law of large numbers is convergence specialized to stochastic empirical averages or frequencies approaching their expectation under stated conditions.", "reason": "The law of large numbers is convergence specialized to stochastic empirical averages or frequencies approaching their expectation under stated conditions. An indexed family approaches a declared limit so that sufficiently late members lie arbitrarily close in the relevant convergence mode. The indexed family is a normalized aggregate of random observations, the limit is their expectation or long-run rate, and convergence is in probability or almost surely under probabilistic regularity conditions." }, { "child": "law_of_large_numbers", "parent": "probability", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "The law of large numbers presupposes probability because its random observations, expectation target, and convergence modes are probabilistic objects.", "reason": "The law of large numbers presupposes probability because its random observations, expectation target, and convergence modes are probabilistic objects. Remove probability measures, random variables, expectation, and probabilistic convergence and the theorem loses both its sequence model and limit claim. The law is a theorem inside probability theory, not a probability measure or the general apparatus for quantifying uncertainty." }, { "child": "law_of_large_numbers", "parent": "aggregation", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "The law contains aggregation because its empirical mean or relative frequency is constructed by combining observations into a normalized summary.", "reason": "The law contains aggregation because its empirical mean or relative frequency is constructed by combining observations into a normalized summary. Remove the sum, count, or empirical-measure aggregation across observations and there is no sample average or frequency whose limit can be asserted. parent_in_child" } ], "law_of_the_instrument": [ { "child": "law_of_the_instrument", "parent": "bias", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "The cross-batch note and both frame law_of_the_instrument as a bias, but a STRONGER, structurally-distinct one: the tool inventory shapes which problem is PERCEIVED (upstream construction), not just the downstream verdict.", "reason": "The cross-batch note and both frame law_of_the_instrument as a bias, but a STRONGER, structurally-distinct one: the tool inventory shapes which problem is PERCEIVED (upstream construction), not just the downstream verdict. is a specialization of bias, specialized to capability-shaped perception. 'often filed loosely as a cognitive bias' \u2014 admit bias as parent while preserving the perceptual-upstream distinction. Bias supplies the genus: Systematic, directional error distinct from random noise. Law of the Instrument preserves that general structure while adding its differentia: The tools an agent possesses systematically bias what it recognises as a problem, what category the problem is sorted into, and what intervention is generated \u2014 the world's joints get carved into shapes the tool can grip, and joints it cannot grip become invisible. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "layered_accumulation": [ { "child": "layered_accumulation", "parent": "aggregation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Layered accumulation is a specific kind of aggregation, retaining sequential deposition history rather than collapsing entries into a flat summary.", "reason": "Layered accumulation is a specialization of aggregation. The general pattern collapses many items into a unified form that retains chosen features while suppressing detail, with the function encoding a claim about what matters. Layered accumulation instantiates this with the retained feature being deposition sequence and conditions: discrete units stack in time-ordered strata, and the current state is the vertical integral of every preserved past state. The aggregation function preserves time-order and per-layer conditions rather than averaging them away. It is aggregation that retains the historical depth dimension as a readable record." }, { "child": "layered_accumulation", "parent": "layering", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Layered accumulation is a specialization of layering in which strata deposit sequentially over time and preserve their conditions of formation.", "reason": "Layered accumulation is a specialization of layering. The general layering pattern organizes a system into stacked strata with each layer providing services or abstractions to the next. Layered accumulation specializes by adding two commitments: the layers deposit sequentially in time-ordered fashion, and each layer preserves the conditions of its deposition so the stratigraphy reads as a record of history. The horizontal-strata architecture is retained, with the additional temporal-deposition and history-preservation properties making the stack a readable archive." }, { "child": "layered_accumulation", "parent": "accumulation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Layered Accumulation is a specialization of Accumulation, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Accumulation supplies the genus: A stock grows or shrinks as the time-integral of its net inflow minus outflow, so stocks and flows live on different objects and cannot be equated. Layered Accumulation preserves that general structure while adding its differentia: Sequential time-ordered deposition in which each new layer rests atop the prior ones, so the position of a layer encodes when it formed and the stack becomes a readable record of history. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "layered_coordination_oversight": [ { "child": "layered_coordination_oversight", "parent": "coordination", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Layered coordination and oversight is a specialization of coordination in which alignment is achieved through tiers of authority with bounded scope.", "reason": "Layered coordination and oversight is a specialization of coordination in which the alignment of independently controlled actors is achieved through multiple tiers of authority, each responsible for tasks at its own scope, with higher tiers providing strategy, resources, and conflict resolution and lower tiers retaining routine decision rights. It inherits coordination's general apparatus of aligning distributed actors into coherent collective outcomes and specializes by fixing the mechanism to tier differentiation with downward flows of strategy and resources, upward flows of reporting and escalation, and within-tier peer coordination." } ], "lazy_evaluation": [ { "child": "lazy_evaluation", "parent": "postponement", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Lazy Evaluation is a specialization of Postponement, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Postponement supplies the genus: Delay the point at which a system commits to a final configuration until more information about which configuration is wanted arrives, trading earliness for accuracy. Lazy Evaluation preserves that general structure while adding its differentia: Defer work until its result is actually demanded. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "lead_and_support_hierarchy": [ { "child": "lead_and_support_hierarchy", "parent": "figure_ground", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Lead-and-support PRODUCES a figure-ground organisation across channels \u2014 figure_ground is the effect, deference design is the craft.", "reason": "Lead-and-support PRODUCES a figure-ground organisation across channels \u2014 figure_ground is the effect, deference design is the craft. It presupposes figure_ground (the perceptual foreground/background the craft authors) and adds the active cross-channel deference apparatus along four axes. Figure-Ground supplies the prerequisite condition: Perceptual organization of a field into salient figure and receding ground. Lead-and-Support Hierarchy operates against that background: When multiple simultaneous channels carry related content, one channel takes the lead while the others provide coordinated, structurally subordinate support that actively defers to it in prominence, timing, and register, producing a figure-ground hierarchy across the channels. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "learned_helplessness": [ { "child": "learned_helplessness", "parent": "learning", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Learned helplessness is a specialization of learning in which the acquired internal capability is a belief that action and outcome are independent.", "reason": "Learned helplessness is a kind of learning specialized to a maladaptive content: the durable update an agent acquires is a generalized representation that its actions do not control outcomes. It inherits learning's general commitment that experience produces a durable change in internal state altering future behavior, and adds the specific case where uncontrollable aversive exposure produces a learned non-contingency belief that then suppresses escape attempts even when escape becomes possible \u2014 a real learning episode whose acquired model is a wrong, action-suppressing one." } ], "learning": [ { "child": "learning", "parent": "adaptation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Learning is a specialization of adaptation in which an agent's internal capability is the structure modified in response to experience.", "reason": "Learning is a kind of adaptation specialized to an agent's internal cognitive or behavioral capability. Both share the adaptation pattern of modifying internal structure in response to sustained environmental input so that continued functioning under new conditions improves. Learning narrows the substrate to knowledge, skill, model, or behavior held by an agent, and narrows the trigger to experience or information. The broader adaptation prime spans physiological, developmental, and evolutionary modification; learning is the particular case where the modified system is an information-processing agent whose future predictions or performance change as the durable trace of acquisition." }, { "child": "learning", "parent": "memory_consolidation", "type": "composition", "flavor": "part_of", "qualifier": "conditional", "reason_short": "Memory Consolidation is an internal stabilization phase of Learning when durable change depends on converting a fragile trace into stable memory.", "reason": "Learning produces a durable, experience-driven change in an agent's knowledge, capability, model, or behavior. Where that durability is achieved through a newly encoded memory trace, Memory Consolidation is the internal stabilization phase that converts the initially fragile trace into a persistent form capable of affecting later performance. The relation is conditional because some learning mechanisms update behavior or parameters without a separately identifiable fragile-to-stable memory stage." } ], "learning_curve_effects": [ { "child": "learning_curve_effects", "parent": "increasing_returns", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Learning curve effects are a specialization of increasing returns in which unit cost or error rate falls as cumulative experience grows.", "reason": "Learning curve effects are a kind of increasing returns specialized to cumulative practice as the state variable: each doubling of cumulative output yields a roughly constant fractional improvement in unit cost, time, or error rate. They inherit the general pattern that the marginal benefit of additional accumulation rises rather than falls, producing self-reinforcing advantage and lock-in for the practitioner, and supply the specific case where the accumulating variable is repetitions performed and the increasing-returns mechanism is acquired skill rather than scale, demand-side adoption, or expectational feedback." }, { "child": "learning_curve_effects", "parent": "learning", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Learning curve effects presuppose learning because the predictable cost decline with cumulative experience is a downstream signature of durable self-update.", "reason": "Learning curve effects describe the empirical regularity that unit cost, time, or error rate falls predictably with cumulative experience, often following a power law. The pattern is parasitic on actual learning happening: without durable experience-driven self-update of the producing agent's internal capability, repetition would yield no improvement. Learning supplies the underlying durable update mechanism; the learning curve is its aggregate quantitative signature visible in production data. So learning curve effects presuppose learning as the underlying capability change that produces the observable cumulative-volume improvement." } ], "learning_substrate_contamination": [ { "child": "learning_substrate_contamination", "parent": "learning", "type": "composition", "flavor": "", "qualifier": "strict", "reason_short": "Learning-substrate contamination contains a normal learning process whose durable update converts adversarially selected evidence into later behavior.", "reason": "The adversary shapes experience or evidence rather than directly writing retained state. A learner must incorporate that substrate and preserve its influence for the later distortion to exist." } ], "legacy_integration": [ { "child": "legacy_integration", "parent": "dependency", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Legacy integration presupposes dependency because preserving institutional knowledge across rupture requires explicit linkage between new and prior systems.", "reason": "Legacy integration presupposes dependency because maintaining practice continuity, institutional knowledge, or cultural identity across discontinuous shifts requires that the new structure be linked to and rely on elements of the prior one. Without dependency's directed reliance relation, the post-rupture system could simply discard the legacy without consequence; legacy integration arises precisely because functions, data, or commitments in the new structure remain bound to artifacts from the old. Dependency supplies the structural couplings that make integration \u2014 rather than clean replacement \u2014 the operative engineering or organizational choice." }, { "child": "legacy_integration", "parent": "continuity_vs_rupture", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Legacy integration is the specific shape continuity-vs-rupture takes when accumulated institutional knowledge is selectively preserved across a discontinuous structural change.", "reason": "Legacy integration is the continuity-side particularization of the continuity-versus-rupture dimension: in the face of a discontinuous organizational shift, the practice selectively threads elements of the predecessor system into the successor structure, producing layered continuity rather than clean rupture. Where the parent prime situates change between fully continuous evolution and full discontinuous break, legacy integration specifies the active choice to preserve causal and epistemic continuity across what would otherwise be a sharp organizational boundary." } ], "legibility": [ { "child": "legibility", "parent": "abstraction", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Legibility is Abstraction specialized to retaining the features a distant actor can compare and act on while discarding heterogeneous local context.", "reason": "It preserves purpose-relative selection from a richer target and fixes the purpose to observation, comparison, coordination, or control at a distance. The child adds an administrative vantage, standardized categories, an action interface, and characteristic loss of local knowledge." }, { "child": "legibility", "parent": "representation", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Legibility contains a simplified Representation through which the distant actor sees and acts on selected features of the richer target.", "reason": "A census, cadastral map, KPI dashboard, schema, or classification is not the target itself but the medium that makes selected target features readable. Remove that target-to-medium mapping and there is no legibility scheme, only direct local familiarity or opaque reality." } ], "legitimacy": [ { "child": "legitimacy", "parent": "authority", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Legitimacy presupposes authority because it names the property by which an authority's commands are treated as rightful rather than merely powerful.", "reason": "Legitimacy presupposes authority because it is defined as a structural property of authority itself \u2014 the condition under which those subject to authority voluntarily comply, recognizing it as rightful rather than as bare coercion. Without the prior existence of authority as the capacity to issue binding decisions, there is nothing for legitimacy to qualify. Legitimacy inherits authority's general apparatus of recognized right-to-decide and specializes it by adding the further commitment that compliance flows from acknowledgment of rightfulness \u2014 backed by procedural, democratic, performance, traditional, charismatic, or legal sources \u2014 rather than from continuous enforcement." } ], "legitimacy_yielding_inquiry": [ { "child": "legitimacy_yielding_inquiry", "parent": "legitimacy", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "The prime is the specific pathology of an inquiry that YIELDS legitimacy while its findings are structurally insulated from the decision; it presupposes legitimacy as the currency it concerns.", "reason": "The prime is the specific pathology of an inquiry that YIELDS legitimacy while its findings are structurally insulated from the decision; it presupposes legitimacy as the currency it concerns. 'legitimacy is the currency this prime is about'. Legitimacy supplies the prerequisite condition: Accepted authority. Legitimacy-Yielding Inquiry Insulated from Decision operates against that background: An organisation runs an inquiry, consultation, or review whose nominal purpose is to inform a decision but whose findings are structurally insulated from changing it, so the activity persists because it confers legitimacy rather than because it informs. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "leverage_points": [ { "child": "leverage_points", "parent": "feedback", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Leverage points typically presuppose feedback because the disproportionate effect of small interventions runs through reinforcing or balancing loops.", "reason": "A leverage point is a location where a small change produces disproportionate effects on system trajectory. The mechanism that amplifies small interventions into large outcomes is typically feedback: a reinforcing loop magnifies the change as it cycles, or a balancing loop transmits the change through compensating dynamics that reshape goals or rules. Feedback supplies the closure A-B-A in which the system's output becomes its own input. Leverage operates through such loops in most cases, though some high-leverage paradigm-level interventions act through belief-restructuring without immediate feedback, hence typical." }, { "child": "leverage_points", "parent": "causality", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Leverage points is the specific shape causality takes when systems have locations where small causes produce disproportionately large effects.", "reason": "Causality is the structural relation between cause and effect, gated by a productive connection and modal robustness so that variations in the cause produce variations in the effect. Leverage points is the particular shape this relation takes in complex systems where causal influence is highly non-uniform across locations: small changes at certain variables, rules, or paradigm-level commitments produce outsized downstream effects. It is a structurally-particularized instance of causal influence whose specific signature is amplification \u2014 disproportionate effect size for a given intervention magnitude \u2014 ranked across intervention sites by depth." } ], "license_as_coordination": [ { "child": "license_as_coordination", "parent": "coordination", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "License as coordination is coordination specialized to aligning independent actors through standing published permissions.", "reason": "Coordination aligns independently controlled actors so their actions can combine coherently. License as Coordination does so by publishing reusable permission terms in advance, allowing actors to plan and transact against the same rule without negotiating separately with the rights holder." } ], "liebigs_law_of_the_minimum": [ { "child": "liebigs_law_of_the_minimum", "parent": "constraint", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Liebig's Law is Constraint specialized to the binding minimum among non-substitutable complementary inputs.", "reason": "Each required input imposes a bound on feasible output: output cannot exceed that input's available quantity divided by its per-unit requirement. Their intersection is a constrained feasible region, and the smallest ratio is the active binding constraint. Liebig's Law adds fixed-proportion complementarity, a min-operator, a kinked response, and migration of the active constraint when the current minimum is lifted." }, { "child": "liebigs_law_of_the_minimum", "parent": "anna_karenina_principle", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Liebig's Law is the quantitative min-over-complements species of the Anna Karenina Principle's conjunction of necessary conditions.", "reason": "At any proposed output level, every non-substitutable input requirement must be satisfied; a shortfall in any one defeats that level. Liebig's Law specializes the parent by assigning quantities and per-unit requirements to the necessary conditions, making feasible output the minimum supply-to-requirement ratio and causing the binding input to migrate when it is lifted. The distinction is structural, not ecological: both primes transfer across domains, while Liebig fixes the quantitative fixed-proportion production form." } ], "life_cycle_assessment_lca": [ { "child": "life_cycle_assessment_lca", "parent": "boundary_critique", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Life Cycle Assessment presupposes boundary critique because its accounting depends on a deliberate, defensible choice of system boundary and functional unit.", "reason": "Life Cycle Assessment presupposes boundary critique because the entire accounting \u2014 what counts inside the system and what is externalized \u2014 is determined by the goal-and-scope definition phase that sets the system boundary and functional unit. Different boundary choices produce radically different impact totals, so the analysis is conditional on the boundary as drawn. Boundary critique supplies the reflective-framing machinery that surfaces, questions, and renegotiates that choice; without it, LCA results would be presented as objective measurement when they are in fact conditional on an embedded normative-strategic decision about where to cut." }, { "child": "life_cycle_assessment_lca", "parent": "traceability", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Life cycle assessment presupposes traceability because totaling environmental burden requires linking impacts back to specific upstream stages and flows.", "reason": "LCA quantifies the full environmental burden of a product across raw-material extraction, manufacturing, distribution, use, and end-of-life \u2014 requiring that every material and energy flow be linked to the specific stage where it occurred. Traceability supplies exactly the infrastructure that lets any element of a system be linked backward through its history of derivation, origin, and custody. Without traceable flows there is no defensible inventory, no attribution of impacts to stages, and no auditable LCA result. LCA therefore presupposes traceability as the data-substrate on which its accounting depends." } ], "liminality": [ { "child": "liminality", "parent": "boundary", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Liminality is the specific shape boundary takes in the time dimension, where the threshold itself becomes a marked transitional zone.", "reason": "Liminality is the specific shape boundary takes when an actor is suspended in the threshold between a prior and subsequent status, neither fully in nor fully out. The boundary pattern names a demarcation between inside and outside with permeability governing flows; liminality particularizes this by extending the boundary into a dwellable temporal interval in which the demarcation criterion is suspended, ordinary rules do not fully apply, and the actor is ritually or institutionally bracketed. It is the boundary turned into a habitat: ambiguity, plasticity, and communitas are what living-on-the-edge looks like structurally." }, { "child": "liminality", "parent": "state_and_state_transition", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Liminality presupposes state and state transition because the threshold middle phase between prior and subsequent statuses requires a state space with transitions.", "reason": "Liminality is the threshold state in which an actor is suspended between prior and subsequent statuses, marked by status ambiguity and characteristic dissolution-and-plasticity. The construct is constitutively about being mid-transition: there is a state before, a state after, and a recognized intermediate region between them. State-and-state-transition supplies that architecture, with the additional commitment that transitions are not instantaneous but can occupy an extended state of their own. Without underlying states and transition structure, there would be no before-and-after for liminality to lie between." } ], "lindy_effect": [ { "child": "lindy_effect", "parent": "heavy_tailed_distributions", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "A heavy-tailed lifetime distribution is the PRIOR the effect requires; Lindy adds the age-conditioned update (survival to age t shifts mass into the tail) the bare distribution does not assert.", "reason": "A heavy-tailed lifetime distribution is the PRIOR the effect requires; Lindy adds the age-conditioned update (survival to age t shifts mass into the tail) the bare distribution does not assert. Presupposes heavy_tailed_distributions. Heavy-Tailed Distributions supplies the prerequisite condition: Distributions where rare, extreme events carry most of the weight. Lindy Effect operates against that background: For entities that do not age, the longer they have already survived, the longer their expected remaining survival becomes. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "linear_combination": [ { "child": "linear_combination", "parent": "aggregation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Every Linear Combination is aggregation specialized to scaling each input by a weight and adding the results with no interaction terms.", "reason": "Linear Combination inherits Aggregation's many-to-one construction from several inputs. It adds a coefficient for each input, scalar multiplication, addition, a stated weight domain, and the no-interaction invariant. Aggregation also includes maxima, medians, nonlinear roll-ups, and other rules, but every admitted linear combination is an additive weighted aggregation." } ], "linear_independence": [ { "child": "linear_independence", "parent": "basis", "type": "decompose", "flavor": "part_of", "qualifier": "strict", "reason_short": "Linear Independence is the framed or domain-specific realization of Basis; removing the local frame leaves the parent's structural relation intact.", "reason": "After the mathematics frame is stripped away, the retained structural roles are those of Basis: A minimal independent generating set \u2014 the smallest collection from which every element of a space can be produced, with no member derivable from the others. Linear Independence adds the local frame and commitments expressed in its identity: No member of a collection is reproducible as a weighted sum of the others. The parent pattern remains recognizable without that vocabulary, while the child is the framed realization of it. That preservation test establishes decomposition rather than taxonomic subsumption." }, { "child": "linear_independence", "parent": "linear_combination", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Linear Independence presupposes Linear Combination, whose structure must already obtain for the child mechanism to be meaningful or operational.", "reason": "Linear Combination supplies the prerequisite condition: Scale each of several objects by a weight and add them together. Linear Independence operates against that background: No member of a collection is reproducible as a weighted sum of the others. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." } ], "linear_programming_lp": [ { "child": "linear_programming_lp", "parent": "constraint", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Linear Programming contains linear Constraints that define which candidates are feasible.", "reason": "A linear program combines an objective with linear equalities, inequalities, and domain restrictions that delimit its feasible candidates. Those Constraints are internal terms of the full optimization problem alongside its decision variables and objective; the whole program is not itself a single Constraint. Removing the restrictions destroys the polyhedral feasible region and leaves at most an unconstrained linear objective." }, { "child": "linear_programming_lp", "parent": "optimization", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Linear programming is a specialization of optimization with linear objectives, linear constraints, and continuous variables over a polyhedral feasible region.", "reason": "Linear programming is a specialization of optimization. Specifically, it instantiates the search-for-an-element-maximizing-or-minimizing-an-objective-under-constraints by restricting both objective and constraints to linear functions and allowing continuous decision variables. The decision variables, objective, constraints, and notion of optimality are exactly an optimization quartet; the linear-and-continuous restriction places the problem in a polyhedral geometric setting where optima lie at vertices and the simplex and interior-point algorithms guarantee efficient global solution, distinguishing it within the broader optimization class." } ], "linearization_meaning_mismatch": [ { "child": "linearization_meaning_mismatch", "parent": "sequencing", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "This prime is the specific MISMATCH failure-mode of order in serial delivery \u2014 order-as-failure where sequencing is order-as-existence.", "reason": "This prime is the specific MISMATCH failure-mode of order in serial delivery \u2014 order-as-failure where sequencing is order-as-existence. A specialization of sequencing. Sequencing supplies the genus: Deliberately ordering steps under precedence constraints so that the arrangement itself, not just the set of tasks, determines the outcome. Linearization-Meaning Mismatch preserves that general structure while adding its differentia: Multi-dimensional content forced through a serial channel is ordered by a principle that does not match the one the consumer reasons by. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." }, { "child": "linearization_meaning_mismatch", "parent": "representational_structure_mismatch", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Linearization-Meaning Mismatch is the species of representational structure mismatch in which a multi-relational source is projected into one serial order whose principle differs from the consumer's reasoning order.", "reason": "Linearization-Meaning Mismatch is the species of representational structure mismatch in which a multi-relational source is projected into one serial order whose principle differs from the consumer's reasoning order. Representational Structure Mismatch supplies the genus: A representation preserves its target's elements but misstates one or more task-relevant relations among them, so content can appear complete while its shape licenses the wrong traversal, inference, or action. Linearization-Meaning Mismatch preserves that general structure while adding its differentia: Multi-dimensional content forced through a serial channel is ordered by a principle that does not match the one the consumer reasons by. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "linguistic_universals": [ { "child": "linguistic_universals", "parent": "invariance", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Linguistic universals is the specific shape invariance takes when structural properties are preserved across the world's languages.", "reason": "Linguistic universals is the structurally-particularized form invariance takes in the cross-linguistic case: the preserved feature is the named structural property (e.g., \"every language distinguishes nouns from verbs\"), the transformation group is variation across the ~7,000 languages, and the empirical evidence is the typological sample. It satisfies invariance's joint commitment \u2014 what is preserved under which operations \u2014 particularized to the case where the operations are inter-linguistic comparison and the invariants are the universals themselves." } ], "liquidity": [ { "child": "liquidity", "parent": "exchange", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Liquidity presupposes exchange because the speed of converting an asset to usable form is a property of the exchange channels available for it.", "reason": "Liquidity presupposes exchange because the ease and speed with which an asset converts to immediately usable form is a measurement of the exchange channels available \u2014 how readily counterparties can be found and conditional transfers consummated without significant loss of value. Without exchange's bilateral-transfer pattern, conversion has no meaning: there is no other party to receive the asset and supply the medium. Exchange supplies the structural substrate; liquidity describes how friction-free that substrate is for a particular asset in a particular context." }, { "child": "liquidity", "parent": "transaction_costs", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Liquidity presupposes transaction costs because the friction it measures is precisely the cost of converting an asset into usable form.", "reason": "Liquidity presupposes transaction costs because the friction it measures \u2014 the time, price concession, and uncertainty between holding an asset and using it \u2014 is itself a species of transaction cost: search for counterparty, negotiation, bid-ask spread, settlement. Without transaction costs as a prior category, the concept of liquidity-as-ease-of-conversion would have nothing to vary against; an asset would either be cash or not, with no intermediate gradient. Liquidity inherits the transaction-cost framework and specializes it to the cost of monetization, making it the inverse measure of friction along the convert-to-cash dimension." } ], "livelock": [ { "child": "livelock", "parent": "feedback", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Livelock contains a coupled feedback loop in which each responsive move elicits the compensating move that sustains non-progress.", "reason": "The recurrent active-but-stalled state is constituted by outputs from each participant feeding back as inputs to the other; without that response loop there may be delay or blockage, but not livelock." } ], "load_balancing": [ { "child": "load_balancing", "parent": "allocation", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Load balancing is the specific shape allocation takes when divisible work is assigned across substitutable units of parallel capacity.", "reason": "Load balancing is the particularization of allocation to a setting where the limited supply is the aggregate capacity of a pool of interchangeable units and the competing claimants are increments of a divisible workload. Where allocation names the bare assignment of finite supply to competing demands generally, load balancing fixes the structural features: the resources are substitutable in parallel, the demands are stream-like increments that can be split, and the assignment rule routes each increment to wherever spare capacity exists." }, { "child": "load_balancing", "parent": "resource_management", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Load balancing is a canonical specific resource-allocation technique (distributing work across capacity) within the broader resource management discipline.", "reason": "Load balancing is a canonical specific resource-allocation technique (distributing work across capacity) within the broader resource management discipline. Resource Management supplies the genus: Allocation of finite assets. Load Balancing preserves that general structure while adding its differentia: Distributing work across resources so none is overloaded. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "loading_dose": [ { "child": "loading_dose", "parent": "accumulation", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "A loading dose presupposes a stock that accumulates net inflow, because the initial excess input exists to fill that stock faster than the maintenance inflow can.", "reason": "The loading regime is meaningful only for a stock whose level changes by accumulated inflow minus outflow. The temporary excess input closes the initial stock deficit; once the target is reached, only the replacement of ongoing outflow remains." }, { "child": "loading_dose", "parent": "equilibrium", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "A loading dose presupposes a target steady operating range whose balancing maintenance input is smaller than the temporary loading input.", "reason": "The defining contrast between loading and maintenance requires a target operating state in which ordinary inflow balances loss. Without that steady target, there is no principled point at which the exceptional initial input should fall to a maintenance rate. Loading Dose is not a kind of Bootstrapping: it needs neither self-produced stages nor recursive construction from its own outputs." } ], "local_autonomy_tiered_escalation": [ { "child": "local_autonomy_tiered_escalation", "parent": "delegation_of_authority", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Local autonomy with tiered escalation presupposes delegation of authority because resolving issues at the lowest competent level requires authority distributed downward with reserved escalation paths.", "reason": "Local autonomy with tiered escalation presupposes delegation of authority because the principle of resolving issues at the lowest competent tier requires that decision-making power be formally assigned downward, with specified limits and reserved escalation pathways back upward. Without delegation's apparatus -- principal-agent assignment, defined scope, accountability mechanisms -- there is no lower competent level to hold the decision and no procedure for escalating when scope exceeds local capacity. Subsidiarity is delegation patterned by competence-band rather than by hierarchy alone. Delegation of Authority supplies the prerequisite condition: Assign responsibility. Local Autonomy & Tiered Escalation operates against that background: Escalate when needed. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." }, { "child": "local_autonomy_tiered_escalation", "parent": "autonomy", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "A scoped-delegation, decide-at-lowest-competent-level specialization of the inner/outer-authority relation \u2014 a kind-of autonomy.", "reason": "A scoped-delegation, decide-at-lowest-competent-level specialization of the inner/outer-authority relation \u2014 a kind-of autonomy. Autonomy supplies the genus: A unit's behavior is governed by its own internal rules or chosen reasons rather than external direction, defined by the inner-versus-outer authority asymmetry over a scoped domain. Local Autonomy & Tiered Escalation preserves that general structure while adding its differentia: Escalate when needed. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "local_optimum": [ { "child": "local_optimum", "parent": "optimization", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "'Optimization is the ACTIVITY of which a local optimum is a failure MODE.' A local optimum presupposes a value landscape under improvement search \u2014 it is the trap the optimization search falls into.", "reason": "'Optimization is the ACTIVITY of which a local optimum is a failure MODE.' A local optimum presupposes a value landscape under improvement search \u2014 it is the trap the optimization search falls into. Optimization supplies the prerequisite condition: Finds best solution under constraints. Local Optimum operates against that background: A point best within its neighborhood but not across the whole landscape. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." }, { "child": "local_optimum", "parent": "optimization_landscape", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "A local_optimum is one POINT (where local search halts) on the landscape; the optimization landscape is the whole country (basins, ridges, plateaus, connectivity).", "reason": "A local_optimum is one POINT (where local search halts) on the landscape; the optimization landscape is the whole country (basins, ridges, plateaus, connectivity). Part-to-whole \u2014 landscape is the broader frame. Optimization Landscape supplies the genus: The topology of a value function over a configuration space, whose shape predicts which search strategies will succeed or get stuck. Local Optimum preserves that general structure while adding its differentia: A point best within its neighborhood but not across the whole landscape. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "local_sequence_legality": [ { "child": "local_sequence_legality", "parent": "local_to_global_aggregation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Local Sequence Legality is a specialization of Local-to-Global Aggregation, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Local-to-Global Aggregation supplies the genus: Locally checkable properties promote to a global verdict under an explicit aggregation discipline. Local Sequence Legality preserves that general structure while adding its differentia: The acceptability of an arrangement of units drawn from a finite inventory is decided by local constraints over short windows of context, prior to and independent of higher-level interpretation, so global legality is the composition of local verdicts. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "locality_of_reference": [ { "child": "locality_of_reference", "parent": "recurrence", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Locality of reference is a kind of recurrence in which recently or nearby accessed items reappear with predictable frequency.", "reason": "Locality of reference is a specialization of recurrence: it asserts that access events reappear across time (temporal locality: recently-used items return soon) and space (spatial locality: items near a used one are used next). It inherits recurrence's structural commitment that patterns reappear with predictable spacing, particularized to the access-distribution domain. The working-set phenomenon is precisely the autocorrelated-recurrence signature in which past usage predicts future usage at non-uniform rates." }, { "child": "locality_of_reference", "parent": "heavy_tailed_distributions", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Locality of reference presupposes heavy-tailed distributions because clustered access patterns produce heavy-tailed access frequencies across the address space.", "reason": "Locality of reference presupposes heavy-tailed distributions because the empirical regularity that a small slowly-drifting working set absorbs the vast majority of accesses is a heavy-tailed access-frequency distribution: a few addresses account for most references while the bulk receive almost none. Without heavy tails' signature of a few extremes dominating sums and averages, locality reduces to uniform access. The working-set phenomenon, page-fault rates, and cache-hit predictions all rest on the same skewed distribution heavy-tailed analysis describes. Heavy-Tailed Distributions supplies the prerequisite condition: Distributions where rare, extreme events carry most of the weight. Locality Of Reference operates against that background: Accesses cluster in time and space, making prediction and caching effective. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption." }, { "child": "locality_of_reference", "parent": "spatial_indexing", "type": "decompose", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Spatial indexing exploits locality of reference (the access-pattern property) for its output-sensitive payoff.", "reason": "Spatial indexing exploits locality of reference (the access-pattern property) for its output-sensitive payoff. After the computer_science frame is stripped away, the retained structural roles are those of Spatial Indexing: Organizing items by position in a space so retrieval, neighborhood, and range queries become geometric and output-sensitive. Locality Of Reference adds the local frame and commitments expressed in its identity: Accesses cluster in time and space, making prediction and caching effective. The parent pattern remains recognizable without that vocabulary, while the child is the framed realization of it. That preservation test establishes decomposition rather than taxonomic subsumption." } ], "located_in_relation": [ { "child": "located_in_relation", "parent": "relation", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Located_in is a relation but the specific mereotopological within-a-region-at-a-time relation with its own inference rules (no transitivity into parthood, time-indexed, non-constitutive) the generic relation lacks.", "reason": "Located_in is a relation but the specific mereotopological within-a-region-at-a-time relation with its own inference rules (no transitivity into parthood, time-indexed, non-constitutive) the generic relation lacks. Relation supplies the genus: Describes associations or dependencies. Located-In Relation preserves that general structure while adding its differentia: One entity is situated within the region of another at a time, without that entity being a part of, or strictly contained by, the location. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association." } ], "lock_in": [ { "child": "lock_in", "parent": "increasing_returns", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Lock-in presupposes increasing returns because the accumulating non-transferable value that makes switching costly is the increasing-returns mechanism.", "reason": "Lock-in is the state in which the forward-looking cost of switching from a current commitment exceeds the cost of continuing, because investment, learning, network growth, or standard adoption has accumulated value that does not transfer to alternatives. This accumulation is precisely the increasing-returns pattern: marginal benefit rising as the cumulative state variable grows, with each successive unit making the option more attractive. Without increasing returns supplying the rising-advantage curve, no asymmetry would build between the current commitment and clean-slate alternatives, and lock-in would not arise." }, { "child": "lock_in", "parent": "path_dependence", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Lock-in is a specific kind of path dependence where past commitments make the present forward cost of switching exceed continuation.", "reason": "Lock-in is a specialization of path dependence. The general pattern is that outcomes depend on the specific historical trajectory of choices, with past decisions foreclosing alternatives and accumulating constraints. Lock-in instantiates this with a particular structural form: history is encoded as accumulated non-transferable value such that, from the present, the cost of switching exceeds the cost of continuing with the suboptimal commitment. It is path dependence with the specific signature that the path's encoded constraints are forward-cost-binding rather than merely contingent." }, { "child": "lock_in", "parent": "ratchet_effect", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Lock_in is the TERMINAL committed state a ratchet climbs toward (staircase-to-landing); the ratchet is the incremental process of cheap captured advances.", "reason": "Lock_in is the TERMINAL committed state a ratchet climbs toward (staircase-to-landing); the ratchet is the incremental process of cheap captured advances. Lower confidence than the path_dependence parent. Ratchet Effect supplies the genus: Direction-asymmetric coupling plus a locking element produces accumulating one-way displacement under bidirectional forcing. Lock-In preserves that general structure while adding its differentia: Forward-looking cost of switching exceeds the forward-looking cost of staying, even when a superior alternative exists. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "logarithmic_perception_and_encoding": [ { "child": "logarithmic_perception_and_encoding", "parent": "representation", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Log encoding is a representational CHOICE \u2014 re-expressing a wide-dynamic-range magnitude on a log axis so equal internal steps mean equal ratios; the commitment lives in the axis (the representation), not the data.", "reason": "Log encoding is a representational CHOICE \u2014 re-expressing a wide-dynamic-range magnitude on a log axis so equal internal steps mean equal ratios; the commitment lives in the axis (the representation), not the data. is-a representation, specialized to ratio-scale re-encoding under wide range + proportional importance." } ], "logging": [ { "child": "logging", "parent": "observability", "type": "composition", "flavor": "presupposes", "qualifier": "typical", "reason_short": "Logging is the append-only, event-time, deferred-reading mechanism that makes a system's internal history externally inspectable \u2014 it presupposes/serves observability (infer internal state externally), as its retrospective record-now-interpret-later instance.", "reason": "Logging is the append-only, event-time, deferred-reading mechanism that makes a system's internal history externally inspectable \u2014 it presupposes/serves observability (infer internal state externally), as its retrospective record-now-interpret-later instance. Observability supplies the prerequisite condition: Infer internal state externally. Logging operates against that background: Record events as they occur, append-only, for inspection after the fact. If the parent condition is removed, the child relation becomes undefined or loses the mechanism asserted by this edge; the parent can obtain independently, so the relation is presupposition rather than subsumption. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "logistic_growth": [ { "child": "logistic_growth", "parent": "boundedness", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Logistic Growth presupposes a finite ceiling that bounds the trajectory and supplies the remaining-capacity term in its multiplicative brake.", "reason": "The logistic equation is distinguished from exponential growth by a finite K that the trajectory approaches asymptotically. Boundedness supplies the fixed finite envelope; Logistic Growth adds endogenous growth, a multiplicative remaining-fraction brake, two fixed points, and a sigmoid time path." }, { "child": "logistic_growth", "parent": "feedback", "type": "composition", "flavor": "part_of", "qualifier": "strict", "reason_short": "Logistic Growth contains the coupled positive engine and negative ceiling brake whose loop interaction produces its sigmoid trajectory.", "reason": "Growth proportional to the current quantity supplies reinforcing feedback; proximity to the finite ceiling supplies a multiplicative balancing feedback. Their conjunction produces takeoff, inflection, and decelerating saturation, while Feedback alone commits to neither a ceiling nor a logistic form." } ], "logistics_overreach": [ { "child": "logistics_overreach", "parent": "bottleneck", "type": "subsumption", "flavor": "", "qualifier": "typical", "reason_short": "Logistics Overreach is typically a specialization of Bottleneck, retaining the parent's defining structure while adding the child's specific commitments.", "reason": "Bottleneck supplies the genus: The single limiting stage that caps an entire system's throughput. Logistics Overreach preserves that general structure while adding its differentia: An operating front advances faster than the trailing supply line that sustains it, and because the lengthening line itself consumes delivery, beyond a crossover point further advance strands what has already advanced rather than extending reach. The parent can occur without those added commitments, whereas removing the parent structure leaves no basis for classifying the child as this subtype. That asymmetry establishes subsumption rather than mere association. The typical qualifier limits the claim to the characteristic route, not a constitutive requirement of every instance; exceptions must retain the child's identity through another mechanism." } ], "loss_and_damage": [ { "child": "loss_and_damage", "parent": "risk", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Loss and damage operates on a pre-existing risk exposure \u2014 it is the post-defense slice of a threat distribution.", "reason": "Loss and damage operates on a pre-existing risk exposure \u2014 it is the post-defense slice of a threat distribution. Presupposes risk; the 0.88 escape_and_leakage neighbor is the scope-narrower sibling, not the parent." } ], "loss_aversion": [ { "child": "loss_aversion", "parent": "preference", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Loss aversion is a specialization of preference in which the ordering is reference-dependent and weighs losses more than equivalent gains.", "reason": "Loss aversion is a kind of preference specialized by a reference-dependent, asymmetric value function: outcomes below the reference point are coded as losses and weighted more heavily than equivalent gains above it. It inherits preference's general commitment to an ordering over a choice set on an evaluative dimension, and supplies the specific case where the evaluative dimension is gain/loss relative to a reference point and the ordering relation systematically privileges loss avoidance \u2014 producing reproducible deviations from expected-utility predictions in framing, endowment pricing, and status-quo bias." }, { "child": "loss_aversion", "parent": "asymmetry", "type": "decompose", "flavor": "", "qualifier": "strict", "reason_short": "Loss aversion is the specific shape asymmetry takes in value perception, where losses weigh more heavily than equivalent gains.", "reason": "Asymmetry names the structural property of a relation whose two sides are not interchangeable \u2014 swap the positions and something changes. Loss aversion is the specific shape this pattern takes around a reference point in the value function: subjective weight on a loss of size x exceeds the weight on a gain of the same size by a factor of roughly 1.5 to 2.5, producing a kinked value function. It is a structurally-particularized instance of directed imbalance whose specific diagnostic is the failed swap-test between gain frame and loss frame at the reference point." }, { "child": "loss_aversion", "parent": "reference_point_dependence", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Loss aversion is reference-point dependence specialized by a value function whose loss-side response is steeper than its gain-side response.", "reason": "Loss aversion is reference-point dependence specialized by a value function whose loss-side response is steeper than its gain-side response. Both evaluate outcomes as signed departures from a movable baseline and predict changed valuation when that baseline moves while the outcome is held fixed. Loss aversion requires unequal weighting, with negative departures exerting more influence than equal positive departures; reference-point dependence alone is silent on slope symmetry." } ], "mach_s_principle": [ { "child": "mach_s_principle", "parent": "reflexivity_self_reference", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Mach's Principle is a kind of reflexivity: a body's inertia is shaped by the total mass distribution it is itself part of.", "reason": "Mach's Principle holds that inertia is not intrinsic to a body but arises from its relation to the total matter distribution in the universe, so a body's resistance to acceleration is co-constituted by the very cosmos that includes it. That is a specialization of reflexivity: the system's behavior is determined by a structural feature in which the system is itself embedded, so the body's inertial state is set by a whole it is part of and acts back upon, instantiating the self-referential coupling that defines reflexivity." }, { "child": "mach_s_principle", "parent": "relation", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Mach's principle presupposes relation because it grounds inertia in a body's relation to the total matter distribution.", "reason": "Mach's principle presupposes relation because its entire claim is that inertia is not intrinsic to a body but arises from how the body stands in association with the rest of the universe's matter. Without the prior availability of a well-defined association-between-elements that can hold across distance and configuration, there is nothing for inertial structure to depend on. Relation supplies the general apparatus of specifying which entities stand together under a designated link; Mach's principle imports that apparatus and asserts that the inertial link is the one that constitutes mass." }, { "child": "mach_s_principle", "parent": "frame_of_reference", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Mach's principle presupposes frame of reference because relational inertia requires that what counts as non-accelerating be defined by a frame fixed by matter.", "reason": "Mach's principle presupposes frame of reference because its relational claim about inertia is precisely a claim about which frames count as inertial: in the Machian view, the local inertial frame is determined by the distribution of matter rather than by an absolute space. Without the prior availability of a frame of reference as a chosen coordinate system relative to which accelerations are defined, there is nothing for matter to fix and no question of what makes a frame non-accelerating. Frame supplies the structural slot that Mach's principle fills with a relational determinant." } ], "maintenance": [ { "child": "maintenance", "parent": "homeostasis", "type": "composition", "flavor": "presupposes", "qualifier": "strict", "reason_short": "Maintenance presupposes homeostasis because sustaining intended function against entropy and wear requires a regulating mechanism tracking variables against bands.", "reason": "Maintenance is the sustained activity of preserving intended function against entropy, wear, and environmental change \u2014 working ahead of catastrophic failure. The activity presupposes that there is a specifiable intended function with characteristic variables that drift under degradation and corrective actions that return those variables toward acceptable bands. Homeostasis supplies that architecture: sensor-comparator-actuator closure that holds key variables within bands against disturbance. Without an underlying homeostatic loop tracking system state against a reference, maintenance has no target condition to preserve and no signal of drift to act on." } ], "maintenance_rehearsal": [ { "child": "maintenance_rehearsal", "parent": "maintenance", "type": "subsumption", "flavor": "", "qualifier": "strict", "reason_short": "Maintenance_rehearsal is the STRICT SUBSET of maintenance whose only intervention is bare re-assertion (no repair/replace/upgrade), carrying two load-bearing inequalities (refresh-period