Network topology and the evolution of dynamics in an artificial genetic regulatory network model created by whole genome duplication and divergence


Autoria(s): Dwight Kuo,; Banzhaf, W.; Leier, A
Contribuinte(s)

David B Fogel

Data(s)

01/01/2006

Resumo

Topological measures of large-scale complex networks are applied to a specific artificial regulatory network model created through a whole genome duplication and divergence mechanism. This class of networks share topological features with natural transcriptional regulatory networks. Specifically, these networks display scale-free and small-world topology and possess subgraph distributions similar to those of natural networks. Thus, the topologies inherent in natural networks may be in part due to their method of creation rather than being exclusively shaped by subsequent evolution under selection. The evolvability of the dynamics of these networks is also examined by evolving networks in simulation to obtain three simple types of output dynamics. The networks obtained from this process show a wide variety of topologies and numbers of genes indicating that it is relatively easy to evolve these classes of dynamics in this model. (c) 2006 Elsevier Ireland Ltd. All rights reserved.

Identificador

http://espace.library.uq.edu.au/view/UQ:80411

Idioma(s)

eng

Publicador

Elsevier Sci Ltd

Palavras-Chave #Biology #Regulatory Networks #Grns #Network Motifs #Scale-free #Small-world #Duplication And Divergence #Scale-free Networks #Escherichia-coli #Protein-interaction #Complex Networks #Motifs #Design #C1 #239901 Biological Mathematics #230113 Dynamical Systems #780101 Mathematical sciences #780105 Biological sciences
Tipo

Journal Article