SOURCE-LINKED INTELLIGENCE
Self-Supervised Combinatorial Optimization with Constraints via Frank-Wolfe
Self-supervised learning for combinatorial optimization has emerged as a promising paradigm for solving discrete optimization problems with neural networks, but a central challenge remains: handling hard combinatorial constraints within continuous, gradient-based training. Continuously extending combinatorial objectives to convex domains is a powerful technique, yet existing approaches often require projection steps that constrain neural network outputs to lie inside the feasible polytope and rely on ad-hoc and problem-specific constructions. We propose a general framework in which the neural
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Evidence & attribution
- arXiv · AI, language, vision and robotics · 2026-09-22T05:59:28.000Z
First collected: 2026-09-23T04:21:13.910Z. This is not the publication date.