Decision Cycle Subordination¶
Core Idea¶
In an adversarial or competitive interaction conducted through interleaved state-changing moves, one actor's decision cycle — the sense-decide-act loop by which it responds to the situation — becomes structurally subordinated to another actor's move tempo. The subordinated actor cannot choose when to act, cannot preempt, and cannot frame what counts as success; each of its moves is constrained to respond to the prior move of the other. The dominant actor holds tempo by virtue of a faster cycle, earlier sensing, or a move-space dimension in which the subordinated actor has no comparable capability. The subordinated actor has lost initiative.
The mechanism has three load-bearing parts. An adversarial or competitive context: two or more actors interacting through interleaved moves whose effects change shared state. A tempo asymmetry: one actor's cycle is faster, or its sensing arrives earlier in the shared sequence. And a response-forced posture: the slower actor's moves are constrained to respond to the faster actor's prior moves, and stopping responding costs more than continuing. Once all three hold, the state is stable under repetition — each round, the faster actor moves, the slower responds, and the faster moves again before the slower can shape the agenda.
The structural force is that the intuitive recovery — "respond faster" — typically deepens the subordination by chaining shallow responses. The structural recovery is to change the move-space: open a new dimension on which the dominant actor is not the tempo-setter, deliberately absorb tempo to reset the engagement, or remove oneself until tempo can be reset on different terms. What changes in a reader's view is that "we're losing" splits into distinct states — tactical defeat, resource depletion, and decision-cycle subordination — of which only the last is the structural inability to initiate, and which a resource-rich actor can suffer while a resource-poor one holds initiative.
How would you explain it like I'm…
Always One Step Behind
Losing The Initiative
Losing The Initiative
Structural Signature¶
two or more actors in an interleaved-move contest — a per-actor sense-decide-act decision cycle — a tempo asymmetry favoring one actor — an interleaving rule placing the faster actor's moves first — a cost-of-not-responding that forces the slower actor into reaction — a stable subordination state — a speed-up trap as the load-bearing invariant
The pattern is present when each of the following holds:
- An interleaved-move contest. Two or more actors interact through moves that change shared state, each move arriving in a sequence relative to the others'.
- Per-actor decision cycles. Each actor runs a sense-decide-act loop with a characteristic cycle time.
- A tempo asymmetry. One actor's cycle is faster, or its sensing arrives earlier in the shared sequence, giving it the initiative.
- An interleaving rule favoring the faster actor. The order of moves places the faster actor's actions ahead, so the slower actor always sees the situation already shaped.
- A response-forcing condition. The slower actor's cost of not responding is at least as large as the cost of responding shallowly, so each of its moves is constrained to react to the prior move.
- A stable subordination state. Under repetition the faster actor sets the agenda each round and the slower merely responds — losing the ability to initiate, preempt, or frame success, independent of its resource level.
- A speed-up trap. The intuitive recovery, "respond faster," chains shallow responses and deepens the subordination, because more speed raises the very cost-asymmetry that forces reaction.
These compose into a distinction between speed and tempo: the structural recovery is to change the move-space — open a new dimension, absorb tempo, disengage, or add a competing actor — rather than to respond faster.
What It Is Not¶
- Not decision itself.
decision(the embedding nearest neighbor, at 0.98) is the act of selecting among options. This prime is not the act but a relational pathology between two actors' decision cycles — one actor's loop forced into reaction to another's tempo. It presupposes decision-making and adds the cross-actor tempo dynamicdecisionalone does not contain. - Not coordination.
coordinationis aligning actors toward a joint goal. Decision-cycle subordination is adversarial: one actor's cycle is forced to react to a competitor's, losing initiative. The relationship is contest, not cooperation, and the failure is lost initiative, not misalignment. - Not attention.
attentionis the allocation of limited processing to inputs. This prime concerns the tempo of an actor's sense-decide-act loop relative to an opponent's, not how it allocates focus; a fully attentive actor can still be tempo-subordinated. - Not belief formation.
belief_formationis how an actor arrives at beliefs. Subordination is about who sets the agenda each round in an interleaved-move contest, not about how beliefs are formed; the subordinated actor may hold perfectly accurate beliefs and still be unable to initiate. - Not competition in general.
competitionis rivalry for a scarce reward. This prime is the specific competitive failure where tempo asymmetry forces one actor into reaction, with the counter-intuitive speed-up trap and the move-space recovery — content generic competition does not supply. - Common misclassification. Diagnosing "we're losing" as tactical defeat or resource depletion when the real state is the structural inability to initiate. The tell: ask whether more resources would let the actor originate an agenda or only respond harder. A resource-rich actor can be tempo-subordinated while a resource-poor one holds initiative; responding faster deepens the trap.
Broad Use¶
In military doctrine, OODA-loop analysis holds that whoever cycles faster forces the other into reactive moves, collapsing the slower side's coherence, with counterinsurgent forces reacting to attacks until a population-centric reframing changes what the unit is there to do. In cybersecurity, detect-contain-eradicate cycles run one step behind attacker moves, and tempo is reset through intelligence consolidation and architectural change rather than faster incident response. In corporate strategy, a firm whose roadmap and pricing track a competitor's announcements has lost competitive tempo, and recovery is repositioning rather than faster matching. In litigation, a defendant driven by the plaintiff's filings reclaims tempo through affirmative counter-claims and schedule control. In diplomacy, a state's policy reduced to reactions reclaims initiative through affirmative agenda-setting. In sports, a team controlling pace forces the other into reactive posture, and a time-out resets tempo. In parenting, a parent forced to respond to escalating behavior recovers by stepping out of the engagement or reframing it. In debate and negotiation, controlling topic rotation forces the other into reactive defense, and reframing is the recovery. Across these the invariant holds: tempo-asymmetric adversarial interaction produces structural subordination of the slower actor's decision cycle, and recovery is move-space change, not response-speed increase.
Clarity¶
The prime separates three confusions that pre-theoretic talk fuses into "we're losing." Tactical defeat is losing individual exchanges, which may or may not produce subordination. Resource depletion is running out of capacity, distinct from tempo subordination, which can occur with ample resources. Decision-cycle subordination is the structural state of being unable to initiate — and resource-rich actors can be subordinated while resource-poor actors hold initiative, so the distinction is not a matter of who is stronger.
It also separates voluntary reactive posture — counterpunching as a chosen strategy — from forced reactivity, the inability to shape the exchange that this prime names; voluntary reactivity is a strategic option, forced reactivity is the failure state. And it separates speed, the latency of any one response, from tempo, the rate of agenda-setting moves: faster responses can deepen subordination, while tempo reset requires withdrawing or changing the move-space. The clarifying force is to make "respond faster" recognizable as the trap it usually is, by showing that speed and tempo are different quantities and that the subordinated actor's problem is a tempo problem that more speed cannot solve.
Manages Complexity¶
The prime reduces a large family of competitive and adversarial failures — losing the news cycle, falling behind the roadmap, defensive-only litigation, reactive cyber posture, counterinsurgent fixation on the last attack — to a single diagnostic: who is setting the tempo, and in what move-space? Once the answer is the other actor in the only relevant move-space, the prescription is move-space change, not faster response. This compresses competitive analysis into three structural questions — what move sequence are we caught in, where does the other actor have tempo advantage, and what move-spaces are not dictated by the other actor — with the recovery falling out of the third.
The compression is sharpened by a fixed recovery move-class that the diagnostic makes available: move-space change, which opens a new dimension where the cycle-time advantage does not apply; tempo absorption, which accepts a costly non-response to break the forcing loop; disengagement, which removes oneself until tempo can be reset; and coalition, which brings in an actor whose tempo competes with the dominant one. Recognizing a competitive failure as decision-cycle subordination thus yields not only the who-sets-the-tempo diagnosis but a prescribed recovery class, and — crucially — a warning that the reflexive speed-up will worsen the state. This is far more compact and accurate than reasoning about each competitive failure separately, all of which would otherwise tempt the same wrong remedy.
Abstract Reasoning¶
The clean abstract model has five primitives: actor set, move space, sense-decide-act cycle time per actor, interleaving rule, and cost-of-not-responding. Subordination emerges when a cycle-time advantage combines with interleaving that favors the faster actor's moves arriving first and a cost-of-not-responding at least as large as the cost of responding shallowly. From these primitives the recovery paths fall out: move-space change opens a dimension where the cycle-time and interleaving advantage does not apply; tempo absorption accepts a costly non-response to reset the interleaving; disengagement removes oneself until conditions for re-establishment exist; and coalition adds an actor whose tempo competes, redistributing the interleaving.
These primitives apply uniformly across substrates, so the same analysis explains why a counterinsurgent campaign cannot reactively-patrol its way out of subordination, why a startup cannot beat an incumbent by mirroring features, why a defendant cannot win by answering each filing, and why a parent cannot de-escalate by matching the child's intensity. The load-bearing prediction — that responding faster makes it worse — is a structural consequence of the cost-of-not-responding asymmetry: each faster shallow response raises that asymmetry and tightens the forcing loop. Watching for forcing chains, where each move makes the next move's framing more constrained, identifies a subordination trajectory early, when the halting move can still be made. These inferences follow from the five-primitive model alone, so they transfer to any interleaved-move contest among actors with decision cycles.
Knowledge Transfer¶
The transferable content is the five-primitive model together with the diagnostic — who sets the tempo, in what move-space — and the recovery move-class of move-space change, tempo absorption, disengagement, and coalition, plus the warning that the speed-up reflex deepens the subordination. Because the primitives are stable across substrates, the diagnostic and design moves carry: identify whether you are setting tempo or following it (often non-obvious, since "we're so busy" can be either intense initiative or pure reaction); resist the speed-up reflex; map the move-spaces you can initiate on and that the other actor has not yet occupied; cost a deliberate withdrawal; and decentralize initiative, since mission-command-style delegation preserves tempo by removing the single decision bottleneck.
These moves transfer cleanly because the structural roles are stable: an interleaved-move contest, a per-actor decision cycle, a tempo asymmetry, a response-forcing condition, a stable subordination state, a speed-up trap, and a recovery move-class. A counterinsurgent commander, an incident-response lead, a startup founder, a litigation attorney, and a parent will recognize each other's failure modes despite the substrate gap, because the same recovery move-class applies and the same speed-up reflex would worsen the subordination in each. The OODA-loop framing, though military in origin, was explicitly transferred to business strategy by its own author, which is itself evidence of the pattern's portability. The portable lesson is that being forced to react is a tempo problem that more speed cannot solve, so the recovery is to change the move-space rather than to respond faster — a lesson that travels intact from a counterinsurgency to a product roadmap to a kitchen-table argument, and that, once held, makes "who sets the tempo, and where can I initiate instead?" the first question asked of any contest in which one keeps finding oneself a step behind.
Examples¶
Formal/abstract¶
The OODA-loop model gives the prime its clean five-primitive form. Cast the contest as a game with an actor set (two adversaries), a move space, a sense-decide-act cycle time per actor, an interleaving rule, and a cost-of-not-responding. Subordination emerges deterministically when three conditions hold together: actor A's cycle time is shorter than B's; the interleaving rule places A's moves ahead, so B always confronts a situation A has already reshaped; and B's cost of not responding is at least as large as the cost of responding shallowly, forcing B to react each round. Run the loop: A senses, decides, and acts; before B can complete its slower loop and initiate, A has already moved again, so B's every action is a constrained response to A's prior move — B has lost initiative, the stable subordination state. The model's load-bearing prediction is counterintuitive and falls straight out of the primitives: B's intuitive recovery, "respond faster," deepens the subordination, because each faster shallow response raises the cost-of-not-responding asymmetry that forces reaction, tightening the forcing loop. The genuine recovery paths are visible in the same model: move-space change opens a new dimension where A's cycle-time-and- interleaving advantage does not apply; tempo absorption accepts one costly non-response to reset the interleaving; disengagement removes B until conditions can be re-established; and coalition adds an actor whose tempo competes with A's, redistributing the interleaving. Watching for forcing chains — where each move makes the next move's framing more constrained — flags a subordination trajectory early, while the halting move is still available.
Mapped back: the OODA game instantiates every primitive — actors, move space, per-actor cycle times, interleaving rule, cost-of-not- responding — and derives the subordination state plus the speed-up trap and the four recovery moves as consequences, not analogies.
Applied/industry¶
A startup competing against an incumbent shows the pattern on a corporate- strategy substrate. The interleaved-move contest is the product market; the moves are feature launches, pricing changes, and announcements; the decision cycles are each firm's plan-build-ship loop. Suppose the startup's roadmap and pricing come to track the incumbent's announcements — every quarter it scrambles to match the incumbent's new feature. By the prime's reading the startup has lost competitive tempo: the incumbent sets the agenda each cycle and the startup merely responds, independent of resource level — a well-funded startup can be subordinated while a lean one holds initiative, because subordination is a tempo property, not a resource one. The speed-up trap is the characteristic error: "ship faster, match features quicker" chains shallow responses and deepens the subordination, because mirroring the incumbent concedes that the incumbent defines what counts as success. The recovery is move-space change, not faster matching: the startup repositions into a dimension the incumbent does not occupy (a different customer segment, a different product axis), where the incumbent's cycle-time advantage does not apply. The identical structure governs litigation — a defendant driven to answer each of the plaintiff's filings reclaims tempo through affirmative counter-claims and schedule control (move-space change), not by responding to filings faster — and incident-response cybersecurity, where a defender one step behind the attacker resets tempo through intelligence consolidation and architectural change rather than faster ticket-closing. The OODA framing was, tellingly, transferred to business strategy by its own military author — itself evidence of the pattern's portability across these strategic-actor domains.
Mapped back: the startup-versus-incumbent contest is decision-cycle subordination — interleaved competitive moves, asymmetric tempo, a response-forcing posture, a stable subordination state, and a speed-up trap — so the recovery (reposition into an uncontested move-space) is the same structural move as affirmative litigation and architectural cyber resets, not "respond faster."
Structural Tensions¶
T1 — Speed versus Tempo (measurement). The prime's central distinction is between speed (latency of any one response) and tempo (rate of agenda-setting moves) — and conflating them produces the speed-up trap, where responding faster deepens subordination by chaining shallow reactions. The failure mode is measuring the wrong quantity: a team proud of its fast turnaround mistakes high response speed for regained initiative while every move remains dictated by the opponent. Diagnostic: ask whether each move originates an agenda or answers one — speed counts answers per unit time, tempo counts originations. The prime's hardest lesson is that the two quantities diverge and that optimizing speed when the problem is tempo tightens the very forcing loop it was meant to escape.
T2 — Forced versus Voluntary Reactivity (scopal). The prime names forced reactivity (the structural inability to shape the exchange) and carefully distinguishes it from voluntary counterpunching, which is a legitimate chosen strategy. The failure mode is misclassifying a deliberate reactive posture as subordination and abandoning a winning counterpunch strategy to "seize initiative" — or, worse, mistaking genuine forced reactivity for a clever plan and never recovering. Diagnostic: ask whether the actor could initiate but chooses not to, or cannot initiate at all. Only the latter is the failure state the prime addresses; reading every reactive posture as subordination prescribes move-space change where steady counterpunching was already optimal.
T3 — Subordination versus Resource Depletion (scopal). The prime splits "we're losing" into tactical defeat, resource depletion, and decision-cycle subordination — and only the last is the structural inability to initiate, which a resource-rich actor can suffer while a resource-poor one holds initiative. The failure mode is treating a tempo problem as a resource problem: pouring capacity into a subordinated posture (more engineers, more spend, more troops) which buys faster shallow responses and deepens the subordination. Diagnostic: ask whether more resources would let the actor initiate or only respond harder. The prime warns these are orthogonal; throwing resources at subordination is the speed-up trap funded, not solved.
T4 — Hold Tempo versus Brittle Over-Commitment (sign/direction). The prime frames tempo as the asset to seize, but the dominant actor's high tempo is not costless — driving the engagement at speed commits it to a move-space and an agenda that an opponent can exploit by changing dimensions. The failure mode is fetishizing tempo: a firm or force that prizes setting the pace becomes predictable and over-committed, vulnerable to exactly the move-space change the prime prescribes to the subordinated party. Diagnostic: ask whether holding tempo has locked the dominant actor onto a single dimension. The prime's recovery (open a new move-space) is most available precisely against an opponent whose tempo dominance has narrowed its own options; tempo is an advantage that, over-pressed, manufactures its own counter.
T5 — Disengagement Recovery versus Cost of Yielding Ground (boundary). Among the recovery moves, disengagement (remove oneself until tempo can be reset) and tempo absorption (accept a costly non-response) both require yielding ground in the present to escape the forcing loop — but yielding can itself be fatal if the contest does not permit a pause. The failure mode is applying the disengagement remedy in a contest with no safe exit: a defendant who stops answering filings defaults, a force that disengages cedes the population. Diagnostic: ask whether the contest tolerates a deliberate non-response without irreversible loss. The prime offers disengagement as a structural reset, but its viability is bounded by the cost-of-not-responding that defined the subordination in the first place; where that cost is unbounded, the exit is closed.
T6 — Single Cycle versus Distributed Initiative (scalar). The clean model treats each actor as one decision cycle, but the prime's own transfer notes that decentralizing initiative (mission-command delegation) preserves tempo by removing the single decision bottleneck. The failure mode is reasoning at the wrong scale: optimizing one central cycle's speed when the structural fix is to distribute initiative across many sub-cycles that the opponent cannot all subordinate at once — or, conversely, decentralizing into incoherence where sub-cycles work at cross-purposes. Diagnostic: ask whether the actor is one cycle or a coordinated mesh of cycles, and whether the opponent's tempo advantage holds against the mesh. The prime's single-cycle primitives understate both the recovery available through distribution and the new failure (loss of coherence) that distribution introduces.
Structural–Framed Character¶
Decision cycle subordination sits on the framed side of the structural–framed spectrum, aggregate 0.6. There is a genuine relational skeleton — two interleaved decision cycles in which one is forced to react to the other's tempo, and accelerating one's own loop deepens rather than escapes the subordination — but that skeleton is built out of decision-making by intentional actors, and one diagnostic reads fully framed as a result.
The decisive criterion is human-practice-bound, which scores full. A "decision cycle" requires an actor that senses, decides, and acts toward an objective — a goal-directed chooser — and "tempo" and "initiative" are strategic-actor concepts. There is no decision-cycle subordination in a physical or biological substrate that merely reacts faster; the pattern presupposes intentional agents contesting through moves, so it is bound to the practice of strategic decision-making. The other four diagnostics each sit at the midpoint, which is what holds the aggregate at 0.6 rather than higher. The vocabulary half-travels: the OODA-loop lexicon and "tempo/initiative" carry an unmistakable military-strategy origin, though the cross-cycle dynamic restates in cybersecurity, litigation, sport, and debate. The evaluative weight is half-present: being subordinated reads as a disadvantage and seizing the initiative as a good, so the prime carries a faint strategic valuation, yet the bare cross-tempo relation is neutral about which actor we favor. The origin is half-institutional, rooted in military-strategic studies rather than a formalism. And invoking it half-imports a frame: you bring the initiative-and-tempo strategic picture, but you also genuinely recognize a real forcing relation between two loops that exists in the interaction. The substrate-faithful verdict is a framed prime whose relational core (two loops, tempo asymmetry, the speed-up trap) is real and portable across adversarial human domains, but which cannot exist without intentional deciding actors — exactly what the full human-practice mark, the cluster of half-marks, and the 0.6 aggregate record.
Substrate Independence¶
Decision-cycle subordination is a moderately substrate-independent prime — composite 3 / 5 on the substrate-independence scale. Its domain breadth and structural abstraction are both good — the tempo-asymmetry pattern (the faster-cycling actor forcing the slower into reactive moves, collapsing its coherence) is structurally clean and recurs in military doctrine (the OODA loop), cybersecurity (detect-contain-eradicate running a step behind the attacker), corporate strategy (a firm tracking a competitor's announcements), litigation (a defendant driven by the plaintiff's filings), diplomacy, sports (pace control), parenting, and debate — which earns the 4s on breadth and abstraction. What pins the composite to 3 is that every one of these instances is an adversarial interaction between deliberating agents: the pattern is dominantly human (or human-organizational) and presupposes actors who observe, orient, decide, and act, so there is no physical or biological substrate where it runs without an agent. The transfer evidence is likewise moderate (3): the same tempo-and-reframing logic is recognized across these adversarial substrates and the recovery move (resetting tempo through repositioning rather than faster matching) recurs, but the transfer is a shared strategic schema applied by human reasoners rather than a formal model that carries verbatim into non-agential systems. The honest reading is a structurally clean prime whose ceiling is set by its confinement to adversarial human practice.
- Composite substrate independence — 3 / 5
- Domain breadth — 4 / 5
- Structural abstraction — 4 / 5
- Transfer evidence — 3 / 5
Relationships to Other Primes¶
Parents (2) — more general patterns this builds on
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Decision Cycle Subordination is a kind of Competition
The file: 'the broad prime under which this one is a sharp special case' — the specific competitive failure where the binding mechanism is TEMPO (one decision cycle forced to react to another's).
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Decision Cycle Subordination presupposes Decision
The file: a relational PATHOLOGY between two actors' decision cycles — it presupposes decision-making and adds the cross-actor tempo dynamic decision alone does not contain. NOT a reparent of decision (clean parent/child per the file).
Path to root: Decision Cycle Subordination → Competition
Neighborhood in Abstraction Space¶
Decision Cycle Subordination sits among the more crowded primes in the catalog (14th percentile for distinctiveness): several abstractions describe nearly the same structure, so a description that fits it will tend to fit its neighbors too — transporting it usually means disambiguating within this family rather than landing on it exactly.
Family — Staged Processes & Drift (32 primes)
Nearest neighbors
- First Mover Advantage — 0.75
- Rock-Paper-Scissors (Intransitive Cyclic Dominance) — 0.74
- Anti-Coordination Game — 0.74
- Stage Gate Process — 0.74
- Strategic Substitute — 0.74
Computed from structural-signature embeddings · 2026-06-14
Not to Be Confused With¶
This prime's nearest catalog neighbor is decision at an embedding similarity of 0.98 — close enough to ask whether it is merely a corner of the decision entry. It is not, and the parent/child relationship is clean. decision is the act of an actor selecting among options under uncertainty — its content is the structure of choice itself: options, preferences, information, the commitment of selecting. Decision-cycle subordination is not an act of choosing but a relational pathology between two actors' decision processes: one actor's sense-decide-act loop is structurally forced to react to another actor's tempo, so that it cannot initiate, preempt, or frame what counts as success. The unit of decision is a single chooser facing a choice; the unit of this prime is two interleaved decision cycles in an adversarial contest, with tempo asymmetry as the load-bearing relation. Everything distinctive here — the speed-versus-tempo distinction, the counter-intuitive speed-up trap, the move-space recovery class — is a property of the cross-actor cycle dynamics, not of the act of deciding. A single actor making a hard decision in isolation exhibits decision but not this prime; there is no opponent setting tempo, no forcing loop, no initiative to lose. The child earns separate status precisely because it adds a relational structure (the interleaving of two loops and the tempo asymmetry between them) that the parent act-of-choosing does not contain. Collapsing it into decision would lose the prime's entire contribution: the recognition that being forced to react is a tempo problem that better individual decisions cannot solve, because the constraint is on when and on what terms you may decide, not on the quality of any decision you make.
A second genuine confusion is with competition, the broad prime under which this one is a sharp special case. competition describes rivalry among actors for a scarce reward and is silent about the mechanism by which one rival gains the upper hand — it covers price wars, footraces, and bidding contests indifferently. Decision-cycle subordination is the specific competitive failure in which the binding mechanism is tempo: one actor's decision cycle is faster or its sensing arrives earlier in the shared move sequence, so the slower actor is forced into perpetual reaction. The specialization adds three things competition lacks. First, a non-resource account of who is winning — a resource-rich competitor can be tempo-subordinated while a lean one holds initiative, so the prime explicitly decouples "losing" from "weaker." Second, the speed-up trap — the counter-intuitive prediction that the obvious competitive response (react faster) deepens the subordination by chaining shallow responses, which generic competition reasoning would never flag. Third, a specific recovery class — change the move-space, absorb tempo, disengage, or add a coalition partner — rather than the open-ended "compete harder" that competition implies. Treating a tempo subordination as ordinary competition prescribes exactly the wrong remedy: out-resourcing or out-executing the opponent in the move-space they already dominate, which is the speed-up trap funded. Treating ordinary competition as tempo subordination over-applies the move-space recovery to a contest whose binding constraint was simply resources or quality, not tempo.
For a practitioner the distinctions order the diagnosis of any "we keep finding ourselves a step behind" situation. Use decision for the structure of a single actor's choice; recognize this prime when two decision cycles interact adversarially and one is forced to react to the other's tempo; and reach past generic competition once tempo — not resources or quality — is the binding asymmetry. The unique contribution is the speed-versus-tempo split and its corollary that the recovery is to change the move-space, never to respond faster.
Solution Archetypes¶
No catalogued solution archetypes reference this prime yet.