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A Primal-Dual-Assisted Penalty Approach to Bilevel Optimization with Coupled Constraints
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Interest in bilevel optimization has grown in recent years, partially due to its applications to tackle challenging machine-learning problems. Several exciting recent works have been centered around developing efficient gradient-based algorithms that can solve bilevel optimization problems with provable guarantees. However, the existing literature mainly focuses on bilevel problems either without constraints, or featuring only simple constraints that do not couple variables across the upper and lower levels, excluding a range of complex applications. Our paper studies this challenging but less explored scenario and develops a (fully) first-order algorithm, which we term BLOCC, to tackle BiLevel Optimization problems with Coupled Constraints. We establish rigorous convergence theory for the proposed algorithm and demonstrate its effectiveness on two well-known real-world applications - hyperparameter selection in support vector machine (SVM) and infrastructure planning in transportation networks using the real data from the city of Seville.
Forward citations
Cited by 2 Pith papers
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Hypergradient-based Bilevel Reinforcement Learning with Improved Sample Complexity
A bilevel RL algorithm using Boltzmann-policy optimality achieves Õ(ε⁻²) sample complexity for first-order stationarity, removing the outer-level PL condition but relying on a non-realizability error bound that is not proven.
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Sequential QCQP for Bilevel Optimization with Line Search
A bilevel optimization algorithm uses a tilted QCQP and a control-barrier line search to guarantee anytime feasibility and an O(1/k) ergodic convergence rate.
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