An interior point method and Sherman--Morrison formula for solving large scale convex quadratic problems with diagonal Hessians

Authors

  • Nadezda Sukhorukova Swinburne University of Technology

DOI:

https://doi.org/10.21914/anziamj.v56i0.7574

Keywords:

large scale convex quadratic problems, interior point methods, Sherman-Morrison formula, social accounting matrices

Abstract

We develop an approach for solving large scale convex quadratic problems with quadratic matrices subject to linear equalities and box-constraints. These problems appear in real-life applications. At first glance, this is a simple convex optimisation problem. However, the size of this problem (\(10^9~\)variables and \(10^6~\)constraints for some applications) makes it very challenging to apply traditional convex optimisation techniques. Therefore, one needs to develop a specific algorithm for solving such kind of problems. We apply a combination of the Interior Point method and Sherman--Morrison formula to solve this problem. We test our approach on smaller size datasets (\(1000~\)variables and \(100~\)constraints). Our numerical experiments show that this combination is efficient, fast and computationally stable. This approach is suitable for large scale convex quadratic optimisation problems. References
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Published

2015-01-25

Issue

Section

Articles for Electronic Supplement