Solving Large-Scale Sparse Semidefinite Programs for Combinatorial Optimization
Steven J. Benson, Yinyu Ye, Xiong Zhang
Abstract
Steven J. Benson, Yinyu Ye, Xiong Zhang
Abstract
We present a dual-scaling interior-point algorithm and show how it exploits the structure and sparsity of some large-scale problems. We solve the positive semidefinite relaxation of combinatorial and quadratic optimization problems subject to boolean constraints. We report the first computational results of interior-point algorithms for approximating maximum cut semidefinite programs with dimension up to 3,000.
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We present a dual-scaling interior-point algorithm and show how it exploits the structure and sparsity of some large-scale problems. We solve the positive semidefinite relaxation of combinatorial and quadratic optimization problems subject to boolean constraints. We report the first computational results of interior-point algorithms for approximating maximum cut semidefinite programs with dimension up to 3,000.
Key concepts: Interior point method, Semidefinite programming, Mathematics, Quadratically constrained quadratic program, Scaling, Semidefinite embedding, Mathematical optimization, Dimension (graph theory)