Optimization for One, Feasibility for Most: Decoupling Optimization from Feasibility in Chance-Constrained Programs
We propose ACCESS (Adaptive Chance-Constrained Exploration via Structured Sampling), a structured sampling framework that decouples optimization from feasibility evaluation.
ProofPaper ↗
Key points
- Chance-constrained stochastic programs (CCSPs) require solutions that satisfy uncertain constraints with high probability.
- Standard approaches either embed scenarios directly into optimization by considering sample average approximation (SAA)-based reformulations, growing prohibitively expensive and often failing to find feasible solutions; or employ conservative reformulations that guarantee feasibility but sacrifice objective quality by design.
- First, high-quality candidate solutions are generated by solving many inexpensive single-scenario subproblems, avoiding sampling directly in the constrained high-dimensional solution space.
- We also introduce a variant, ACCESS($δ$), which provides certified feasibility guarantees with probability $1-δ$.
Sources (1)
- [1]Optimization for One, Feasibility for Most: Decoupling Optimization from Feasibility in Chance-Constrained ProgramsarXiv (AI, ML, NLP, CV, robotics, multi-agent) · Oct 13, 06:20 PM
We propose ACCESS (Adaptive Chance-Constrained Exploration via Structured Sampling), a structured sampling framework that decouples optimization from feasibility evaluation.
Chance-constrained stochastic programs (CCSPs) require solutions that satisfy uncertain constraints with high probability.
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