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Selective crossover in genetic algorithms: An empirical study
Author(s) -
Kanta Vekaria,
Christopher D. Clack
Publication year - 1998
Publication title -
lecture notes in computer science
Language(s) - English
Resource type - Book series
SCImago Journal Rank - 0.249
H-Index - 400
eISSN - 1611-3349
pISSN - 0302-9743
ISBN - 3-540-65078-4
DOI - 10.1007/bfb0056886
Subject(s) - crossover , computer science , operator (biology) , genetic algorithm , generator (circuit theory) , algorithm , set (abstract data type) , mutation , quality control and genetic algorithms , encoding (memory) , population , point (geometry) , mathematical optimization , mathematics , optimization problem , artificial intelligence , machine learning , meta optimization , physics , repressor , chemistry , sociology , biochemistry , power (physics) , quantum mechanics , transcription factor , programming language , demography , gene , geometry
The performance of a genetic algorithm (GA) is dependent on many factors: the type of crossover operator, the rate of crossover, the rate of muta- tion, population size, and the encoding used are just a few examples. Currently, GA practitioners pick and choose GA parameters empirically until they achieve adequate performance for a given problem. In this paper we have isolated one such parameter: the crossover operator. The motivation for this study is to pro- vide a n adaptive c rossover operator that gives best overall performance on a large set of problems. A new adaptive crossover operator "selective crossover" is proposed and is compared with two-point and uniform crossover on a prob- lem generator where epistasis can be varied and on trap functions where decep- tion can be varied. We provide empirical results which show that selective crossover is more efficient than two-point and uniform crossover across a rep- resentative set of search problems containing epistasis.

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