Error Analysis of Numerical Methods for Optimization Problems

The article discusses methods for constructing solution error estimates in optimization problems, which fall into two categories: theoretical and numerical. Theoretical estimates are based on convergence analysis and are mainly useful for qualitative insights, while numerical estimates provide explicit values but are limited to certain methods. The paper introduces two new numerical error estimation methods for a broad range of optimization problems. The first method uses a three-point scheme to derive an exact error estimate from a decreasing sequence of objective function values. The second method, called the rounding method, estimates the error by tracking the increase in significant digits of the solution as iterations progress. Numerical experiments are provided to support these methods.

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Publication Details

Journal
Computational Mathematics and Mathematical Physics
Published
2025-03-01
DOI
https://doi.org/10.1134/s096554252470218x
Primary Topic
Logic, programming, and type systems
Type
article
Field-Weighted Citation Impact
0.00
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article

Error Analysis of Numerical Methods for Optimization Problems

А.В. Лисаченко, Julia Chernova, Alexey Chernov, A. G. Birjukov
Computational Mathematics and Mathematical Physics
Logic, programming, and type systems
article

Error Analysis of Numerical Methods for Optimization Problems

А.В. Лисаченко, Julia Chernova, Alexey Chernov, A. G. Birjukov
article en

Abstract

The article discusses methods for constructing solution error estimates in optimization problems, which fall into two categories: theoretical and numerical. Theoretical estimates are based on convergence analysis and are mainly useful for qualitative insights, while numerical estimates provide explicit values but are limited to certain methods. The paper introduces two new numerical error estimation methods for a broad range of optimization problems. The first method uses a three-point scheme to derive an exact error estimate from a decreasing sequence of objective function values. The second method, called the rounding method, estimates the error by tracking the increase in significant digits of the solution as iterations progress. Numerical experiments are provided to support these methods.

Computational Mathematics and Mathematical PhysicsVol. 65(3)
Moscow Institute of Physics and Technology (RU), Lomonosov Moscow State University (RU), Russian Engineering Academy (RU)
Openalex Percentile: Top 96%
Logic, programming, and type systems
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