DocumentCode :
527807
Title :
Game study on the populational Parrondo´s paradox based on complex network
Author :
Wang, Lingang ; Xie, Nenggang ; Xu, Gang ; Wang, Chao ; Chen, Yun ; Meng, Rui
Author_Institution :
Dept. of Mech. Eng., Anhui Univ. of Technol., Ma´´anshan, China
Volume :
6
fYear :
2010
fDate :
10-12 Aug. 2010
Firstpage :
3169
Lastpage :
3175
Abstract :
In this article, the author designs a Parrondo´s game model of biotic population with complex network as its spatial carrier, trying to analyze the individual´s competitive and cooperative behaviour, Investigate the degree distribution of the heterogeneity on the impact of Coopetition. The populational Parrondo´s game model includes zero-sum games among individuals and the negative sum-up games between individuals and environment. In terms of zero-sum game relations, four patterns are defined: cooperation, competition, harmony, and Matthew patterns. The simulating calculation result shows that:1)Cooperation and competition in any form is adaptive behavior. Cooperative and competitive behavior could convert the losing game combination into winning. The positive population average fitness represents the paradoxical feature that the Parrondo´s game is counterintuitive.2)The population average fitness of cooperation and harmony patterns based on BA network is better than that of full connectivity, whereas the average fitness of competition and Matthew patterns is worse than that. BA network is conducive to cooperation.3)The relationship of individual fitness with node degree and with clustering coefficient is disclosed. As for cooperation pattern, the greater the node degree is, the greater the individual fitness is. In regard to nodes with the same degree, the greater the clustering coefficient is, the smaller the fitness is. For the Matthew pattern, severe polarization of individual fitness turns up, and the “Butterfly Effect” shows. 4)The heterogeneity positive impact on cooperation,the higher the heterogeneity,the population average fitness of cooperation is greater.
Keywords :
complex networks; game theory; network theory (graphs); pattern clustering; Matthew pattern; biotic population; butterfly effect; clustering coefficient; complex network; cooperative behaviour; game study; negative sum-up game; node degree; populational Parrondo paradox; zero-sum game; Adaptation model; Analytical models; Barium; Biological system modeling; Complex networks; Games; Stochastic processes; Adjustable distribution of degree network; BA network; Butterfly Effect; Parrondo´s paradox; competition; cooperation;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Natural Computation (ICNC), 2010 Sixth International Conference on
Conference_Location :
Yantai, Shandong
Print_ISBN :
978-1-4244-5958-2
Type :
conf
DOI :
10.1109/ICNC.2010.5584425
Filename :
5584425
Link To Document :
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