DOI: https://doi.org/10.26089/NumMet.v16r334

A method of redundant constraint elimination in the problem of body recovery based on support function measurements

Authors

  • I.A. Palachev

Keywords:

support function
geometric bodies recovery
linear programming
quadratic programming
shadow contour
duality transformation

Abstract

A new body recovery algorithm based on support function measurements is proposed. The proposed algorithm represents a linear or quadratic programming problem in Gardner-Kiderlen form with smaller number of constraints. The reduction of constraint number is based on a new method that allows one to eliminate a part of initial constraints as redundant. A new approach of body recovery based on shadow contours is proposed. It allows one to reuse body recovery methods based on support function measurements. The implementation of the algorithm is described and some results of its testing on real industrial contours are discussed. The proposed method ensures the reduction of constraint number by 80% in the discussed example and also enables to speedup the initial Gardner-Kiderlen algorithm by an order of magnitude.


Published

2015-07-03

Issue

Section

Section 1. Numerical methods and applications

Author Biography

I.A. Palachev


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