Adaptive Self-Organizing Organisms Using a Bio-Inspired Gene Regulatory Network Controller

Yao Yao, K. Marchal, Y. Van de Peer
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Abstract

This work has explored the adaptive potential of simulated swarm robots that contain a genomic encoding of a bio-inspired gene regulatory network (GRN). An artificial genome is combined with a flexible agent-based system, representing the activated part of the regulatory network that transduces environmental cues into phenotypic behavior. Using an Alife simulation framework that mimics a changing environment, we have shown that separating the static from the conditionally active part of the network contributes to a better adaptive behavior. This chapter describes the biologically inspired concept of GRNs to develop a distributed robot self-organizing approach. In particular, it shows that by using this approach, multiple swarm robots can aggregate to form a robotic organism that can adapt its configuration as a response to a dynamically changing environment. In addition, through the comparison of several different simulation experiments, the results illustrate the impact of evolutionary operators such as mutations and duplications on improving the adaptability of organisms.
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使用生物启发基因调控网络控制器的自适应自组织生物
这项工作探索了模拟群体机器人的自适应潜力,该机器人包含生物启发基因调控网络(GRN)的基因组编码。人工基因组与灵活的基于主体的系统相结合,代表了将环境信号转导为表型行为的调节网络的激活部分。使用模拟不断变化的环境的Alife模拟框架,我们已经表明,将网络的静态部分与有条件的活动部分分离有助于更好的自适应行为。本章描述了受生物学启发的grn概念,以开发分布式机器人自组织方法。特别是,它表明,通过使用这种方法,多个群体机器人可以聚集形成一个机器人有机体,可以根据动态变化的环境调整其配置。此外,通过几种不同模拟实验的比较,结果说明了突变和复制等进化算子对提高生物适应性的影响。
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Journal of Rapid Methods and Automation in Microbiology
Journal of Rapid Methods and Automation in Microbiology 生物-生物工程与应用微生物
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