Convex Optimization¶
Boyd, S., & Vandenberghe, L. (2004). Convex Optimization. Cambridge University Press.
Cited by¶
13 citations across 13 artifacts.
Each citation links to the sentence it supports in the citing article.
Primes¶
- Convexity
- From this single algebraic shape an unusually large number of well-behaved properties follow — local minima coincide with global minima, separating hyperplanes always exist, certificates of optimality become checkable by inspection, and aggregation across many decision-makers behaves predictably — which is why a property that looks like a piece of geometry turns out to govern tractability across many substrates.
This sourceStandard reference establishing that convex sets and convex objectives make optimization tractable (local optimum = global), with duality, separating-hyperplane certificates, and the convex quadratic program.
- From this single algebraic shape an unusually large number of well-behaved properties follow — local minima coincide with global minima, separating hyperplanes always exist, certificates of optimality become checkable by inspection, and aggregation across many decision-makers behaves predictably — which is why a property that looks like a piece of geometry turns out to govern tractability across many substrates.
- Intersection
- The simultaneous-membership (AND) test is the defining move: a point $x$ is feasible only if it lies in every half-space at once, so the feasible region is the intersection $\bigcap_i \{x : a_i \cdot x \le b_i\}$ — a convex polytope.
This sourceEstablishes that the feasible region of a linear program is the intersection of half-spaces (a convex polyhedron), monotonically shrinking as constraints are added.
- The simultaneous-membership (AND) test is the defining move: a point $x$ is feasible only if it lies in every half-space at once, so the feasible region is the intersection $\bigcap_i \{x : a_i \cdot x \le b_i\}$ — a convex polytope.
- Local Optimum
- In mathematical optimisation it is the canonical home: gradient ascent on a non-convex function halts at a local maximum, and the structural difficulty of non-convex optimisation just is the local-optimum problem.
This sourceTreats local versus global optima and the structural difficulty of non-convex optimization where gradient methods halt at local maxima.
- In mathematical optimisation it is the canonical home: gradient ascent on a non-convex function halts at a local maximum, and the structural difficulty of non-convex optimisation just is the local-optimum problem.
- Optimization
- In mathematics and operations research, optimization spans linear programming (Dantzig's simplex method, 1947 — already FACT-resolved as part of constraint #22 in DP-03), integer programming, convex optimization
This sourceCanonical modern textbook on convex analysis: defines convex functions via the second-order curvature condition (positive semidefinite Hessian) and develops state-dependent marginal effects as the structural fingerprint of convexity.
- In mathematics and operations research, optimization spans linear programming (Dantzig's simplex method, 1947 — already FACT-resolved as part of constraint #22 in DP-03), integer programming, convex optimization
- Projection
- The projected-gradient pattern — do an unconstrained move, then project back to the feasible set — transfers to any setting with hard constraints, recurring as clipping in machine learning, snapping to spec in engineering, and proposal-then-statutory-revision in policy.
This sourceDevelops projection onto convex sets and projected-gradient methods for constrained optimization.
- The projected-gradient pattern — do an unconstrained move, then project back to the feasible set — transfers to any setting with hard constraints, recurring as clipping in machine learning, snapping to spec in engineering, and proposal-then-statutory-revision in policy.
- Subadditivity
- Together with a norm's absolute homogeneity, the triangle inequality makes every norm ball convex; by itself it also turns local component bounds into a bound on a vector sum.
This sourceAuthor-hosted text stating the norm triangle inequality \(f(x+y)\leq f(x)+f(y)\) and its role in norm geometry.
- Together with a norm's absolute homogeneity, the triangle inequality makes every norm ball convex; by itself it also turns local component bounds into a bound on a vector sum.
- Termination Condition
- In optimization and control, convergence criteria for nonlinear solvers, early stopping in training, and branch-and-bound termination on the bound gap all instantiate the pattern.
This sourceStandard reference for stopping/convergence criteria in iterative optimization solvers.
- In optimization and control, convergence criteria for nonlinear solvers, early stopping in training, and branch-and-bound termination on the bound gap all instantiate the pattern.
Domain-specific¶
Mechanisms¶
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