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Free, publicly-accessible full text available June 9, 2026
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Drusvyatskiy, D.; Paquette, C. (, Mathematical Programming)
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Paquette, C.; Lin, H.; Drusvyatskiy, D.; and Mairal, J.; Harchaoui, Z. (, Proceedings of the Twenty-First International Conference on Artificial Intelligence and Statistics)We introduce a generic scheme to solve nonconvex optimization problems using gradient-based algorithms originally designed for minimizing convex functions. Even though these methods may originally require convexity to operate, the proposed approach allows one to use them without assuming any knowledge about the convexity of the objective. In general, the scheme is guaranteed to produce a stationary point with a worst-case efficiency typical of first-order methods, and when the objective turns out to be convex, it automatically accelerates in the sense of Nesterov and achieves near-optimal convergence rate in function values. We conclude the paper by showing promising experimental results obtained by applying our approach to incremental algorithms such as SVRG and SAGA for sparse matrix factorization and for learning neural networksmore » « less
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