In this paper, we develop an exterior point algorithm for convex quadratic programming using a penalty function approach. Each iteration in the algorithm consists of a single Newton step followed by a reduction in the value of the penalty parameter. The points generated by the algorithm follow an e
A new algorithm for quadratic programming
✍ Scribed by Tamás Terlaky
- Publisher
- Elsevier Science
- Year
- 1987
- Tongue
- English
- Weight
- 531 KB
- Volume
- 32
- Category
- Article
- ISSN
- 0377-2217
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✦ Synopsis
We present a new finite algorithm for quadratic programming. Our algorithm is based on the solution procedures of linear programming (pivoting, Bland's rule, Hungarian Methods, criss-cross method), however this method does not require the enlargement of the basic tableau as Frank-Wolfe method does. It can be considered as a feasible point active-set method. We solve linear equation systems in oder to reach an active constraint set (complementary solutions) and we solve a feasibility problem in order to check that optimality can be reached on this active set or to improve the actual solution.
This algorithm is a straightforward generalization of Klafszky's and Terlaky's Hungarian Method. It has nearly the same structure as Ritter's algorithm (which is based on conjugate directions), but it does not use conjugate directions.
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