2017
DOI: 10.1038/s41467-017-00109-2
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Mergeable nervous systems for robots

Abstract: Robots have the potential to display a higher degree of lifetime morphological adaptation than natural organisms. By adopting a modular approach, robots with different capabilities, shapes, and sizes could, in theory, construct and reconfigure themselves as required. However, current modular robots have only been able to display a limited range of hardwired behaviors because they rely solely on distributed control. Here, we present robots whose bodies and control systems can merge to form entirely new robots t… Show more

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Cited by 64 publications
(75 citation statements)
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References 18 publications
(19 reference statements)
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“…Arbib & Fellous 2004;Asada 2015;Bostrom 2014;Briegel 2012;Cardon 2006;Clark 2015; in press a;Davies 2016;Fung 2015;Han et al 2013;Kaipa et al 2010;Lake et al 2018;Lumaca & Baggio 2017;Mathews et al 2017;McShea 2013;Parisi 1997;Thomaz & Cakmak 2013;Wallach et al 2010). Trends in state-of-the-art digital life research and development emphasize dynamic machine-learning construction, operation, and evolution of whole semi-autonomous artificial organisms, such as OpenWorm's simulated nematode Caenorhabditis elegans and the plant-science community's crop-on-a-chip Arabidopsis thaliana.…”
mentioning
confidence: 99%
“…Arbib & Fellous 2004;Asada 2015;Bostrom 2014;Briegel 2012;Cardon 2006;Clark 2015; in press a;Davies 2016;Fung 2015;Han et al 2013;Kaipa et al 2010;Lake et al 2018;Lumaca & Baggio 2017;Mathews et al 2017;McShea 2013;Parisi 1997;Thomaz & Cakmak 2013;Wallach et al 2010). Trends in state-of-the-art digital life research and development emphasize dynamic machine-learning construction, operation, and evolution of whole semi-autonomous artificial organisms, such as OpenWorm's simulated nematode Caenorhabditis elegans and the plant-science community's crop-on-a-chip Arabidopsis thaliana.…”
mentioning
confidence: 99%
“…In swarm robotics research so far, a form of morphological plasticity is possible through self-assembly into connected groups of various forms (Brambilla et al, 2013). Examples of this include the "s-bot" which can physically attach to each other (Mondada et al, 2004), conceptual demonstrations in "Kilobots" (Rubenstein et al, 2014;Slavkov et al, 2018;Carrillo-Zapata et al, 2019), or the idea of a "mergeable nervous system" (Mathews et al, 2017). More broadly, one can design robots to adapt their own morphology (Divband Soorati et al, 2019;Hauser, 2019;Kriegman et al, 2019); in combination such "multi-robot organisms" (Levi and Kernbach, 2010) may selforganize a wide range of adaptations.…”
Section: Physiological and Morphological Plasticitymentioning
confidence: 99%
“…而自重组 机器人则相对于可重构机器人具有更强的自主性能够 根据任务需求主动完成自身的重构 [231] . [255] 等相关技术也将会是未来软体机 器人模块化方面的重要研究内容 [246] . [7] .…”
Section: 机器人各模块之间具有更强的通用性和兼容性 并且unclassified