Title :
Comparison study of controlling bloat model of GP in constructing filter for cell image segmentation problems
Author :
Yamaguchi, Hiroaki ; Hiroyasu, Tomoyuki ; Nunokawa, Sakito ; Koizumi, Noriko ; Okumura, Naoki ; Yokouchi, Hisatake ; Miki, M. ; Yoshimi, Masato
Author_Institution :
Grad. Sch. of Eng., Doshisha Univ., Kyoto, Japan
Abstract :
The final goal of this research is to construct a cell image analysis system for supporting corneal regenerative medicine. Existing image analysis software requires knowledge about image processing of users because users have to combine several image processing on its analysis. Therefore, several types of methods to construct the objective image processing automatically using genetic programming (GP) have been proposed. However, in conventional researches, only canonical GP models were utilized. In this paper, GP models suited to cell image segmentation are investigated applying proposed controlling bloat model of GP. Applied models were six types in addition to the canonical model; those are Double Tournament, Tarpeian, Non-Destructive Crossover (NDC), Recombinative Hill-Climbing (RHC), Spatial Structure + Elitism (SS+E). The combination of image processing obtained by these GP models and the robustness are examined by comparative experiments, using corned endothelium cell image. The experiment results showed that SS+E is superior to other models in both robustness and image processing constructed for cell image segmentation, without depending on parameters of tree depth limit and penalty.
Keywords :
cellular biophysics; eye; filtering theory; genetic algorithms; image segmentation; medical image processing; trees (mathematics); NDC; RHC; SS plus E; WCCI; canonical GP models; cell image analysis system; cell image segmentation problem; controlling bloat model; corneal regenerative medicine; corned endothelium cell image; double tournament model; filter construction; genetic programming; image analysis software; image processing; nondestructive crossover model; recombinative hill-climbing model; spatial structure plus elitism; tarpeian model; tree depth limit; Biomedical imaging; Computational modeling; Genetic programming; Image segmentation; Mathematical model; Robustness;
Conference_Titel :
Evolutionary Computation (CEC), 2012 IEEE Congress on
Conference_Location :
Brisbane, QLD
Print_ISBN :
978-1-4673-1510-4
Electronic_ISBN :
978-1-4673-1508-1
DOI :
10.1109/CEC.2012.6252995