Principled Design of Translation, Scale, and Rotation Invariant Variation Operators for Metaheuristics
Abstract
In the past three decades, a large number of metaheuristics have been proposed and shown high performance in solving complex optimization problems. While most variation operators in existing metaheuristics are empirically designed, this paper aims to design new operators automatically, which are expected to be search space independent and thus exhibit robust performance on different problems. For this purpose, this work first investigates the influence of translation invariance, scale invariance, and rotation invariance on the search behavior and performance of some representative operators. Then, we deduce the generic form of translation, scale, and rotation invariant operators. Afterwards, a principled approach is proposed for the automated design of operators, which searches for high-performance operators based on the deduced generic form. The experimental results demonstrate that the operators generated by the proposed approach outperform state-of-the-art ones on a variety of problems with complex landscapes and up to 1000 decision variables.
Keywords
Cite
@article{arxiv.2105.10657,
title = {Principled Design of Translation, Scale, and Rotation Invariant Variation Operators for Metaheuristics},
author = {Ye Tian and Xingyi Zhang and Cheng He and Kay Chen Tan and Yaochu Jin},
journal= {arXiv preprint arXiv:2105.10657},
year = {2021}
}