Detail publikace
Acceleration of Evolutionary Image Filter Design Using Coevolution in Cartesian GP
DRAHOŠOVÁ, M. SEKANINA, L.
Originální název
Acceleration of Evolutionary Image Filter Design Using Coevolution in Cartesian GP
Anglický název
Acceleration of Evolutionary Image Filter Design Using Coevolution in Cartesian GP
Jazyk
en
Originální abstrakt
The aim of this paper is to accelerate the task of evolutionary image filter design using coevolution of candidate filters and training vectors subsets. Two coevolutionary methods are implemented and compared for this task in the framework of Cartesian Genetic Programming (CGP). Experimental results show that only 15-20 % of original test vectors are needed to find an image filter which provides the same quality of filtering as the best filter evolved using the standard CGP which utilizes the whole training set. Moreover, the median time of evolution was reduced 2.99 times in comparison with the standard CGP.
Anglický abstrakt
The aim of this paper is to accelerate the task of evolutionary image filter design using coevolution of candidate filters and training vectors subsets. Two coevolutionary methods are implemented and compared for this task in the framework of Cartesian Genetic Programming (CGP). Experimental results show that only 15-20 % of original test vectors are needed to find an image filter which provides the same quality of filtering as the best filter evolved using the standard CGP which utilizes the whole training set. Moreover, the median time of evolution was reduced 2.99 times in comparison with the standard CGP.
Dokumenty
BibTex
@article{BUT96949,
author="Michaela {Drahošová} and Lukáš {Sekanina}",
title="Acceleration of Evolutionary Image Filter Design Using Coevolution in Cartesian GP",
annote="The aim of this paper is to accelerate the task of evolutionary image filter
design using coevolution of candidate filters and training vectors subsets. Two
coevolutionary methods are implemented and compared for this task in the
framework of Cartesian Genetic Programming (CGP). Experimental results show that
only 15-20 % of original test vectors are needed to find an image filter which
provides the same quality of filtering as the best filter evolved using the
standard CGP which utilizes the whole training set. Moreover, the median time of
evolution was reduced 2.99 times in comparison with the standard CGP.",
address="Springer Verlag",
booktitle="The 12th International Conference on Parallel Problem Solving from Nature",
chapter="96949",
doi="10.1007/978-3-642-32937-1_17",
edition="NEUVEDEN",
howpublished="print",
institution="Springer Verlag",
number="7491",
volume="2012",
year="2012",
month="july",
pages="163--172",
publisher="Springer Verlag",
type="journal article - other"
}