Evolution of prehension ability in an anthropomorphic neurorobotic arm

In this paper, we show how a simulated anthropomorphic robotic arm controlled by an artificial neural network can develop effective reaching and grasping behaviour through a trial and error process in which the free parameters encode the control rules which regulate the fine-grained interaction betw...

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Main Authors: Gianluca Massera, Angelo Cangelosi, Stefano Nolfi
Format: Article
Language:English
Published: Frontiers Media S.A. 2007-11-01
Series:Frontiers in Neurorobotics
Subjects:
Online Access:http://journal.frontiersin.org/Journal/10.3389/neuro.12.004.2007/full
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spelling doaj-00a02ee6c4ad431599a6e9d93f60a39b2020-11-24T23:46:31ZengFrontiers Media S.A.Frontiers in Neurorobotics1662-52182007-11-01110.3389/neuro.12.004.2007110Evolution of prehension ability in an anthropomorphic neurorobotic armGianluca Massera0Gianluca Massera1Angelo Cangelosi2Stefano Nolfi3Institute of Cognitive Science and Technologies, National Research Council (CNR)School of Computing, Communications and Electronics, University of PlymouthSchool of Computing, Communications and Electronics, University of PlymouthInstitute of Cognitive Science and Technologies, National Research Council (CNR)In this paper, we show how a simulated anthropomorphic robotic arm controlled by an artificial neural network can develop effective reaching and grasping behaviour through a trial and error process in which the free parameters encode the control rules which regulate the fine-grained interaction between the robot and the environment and variations of the free parameters are retained or discarded on the basis of their effects at the level of the global behaviour exhibited by the robot situated in the environment. The obtained results demonstrate how the proposed methodology allows the robot to produce effective behaviours thanks to its ability to exploit the morphological properties of the robot's body (i.e. its anthropomorphic shape, the elastic properties of its muscle-like actuators and the compliance of its actuated joints) and the properties which arise from the physical interaction between the robot and the environment mediated by appropriate control rules.http://journal.frontiersin.org/Journal/10.3389/neuro.12.004.2007/fulladaptationEvolutionary Roboticsreaching and graspingrobotic arm
collection DOAJ
language English
format Article
sources DOAJ
author Gianluca Massera
Gianluca Massera
Angelo Cangelosi
Stefano Nolfi
spellingShingle Gianluca Massera
Gianluca Massera
Angelo Cangelosi
Stefano Nolfi
Evolution of prehension ability in an anthropomorphic neurorobotic arm
Frontiers in Neurorobotics
adaptation
Evolutionary Robotics
reaching and grasping
robotic arm
author_facet Gianluca Massera
Gianluca Massera
Angelo Cangelosi
Stefano Nolfi
author_sort Gianluca Massera
title Evolution of prehension ability in an anthropomorphic neurorobotic arm
title_short Evolution of prehension ability in an anthropomorphic neurorobotic arm
title_full Evolution of prehension ability in an anthropomorphic neurorobotic arm
title_fullStr Evolution of prehension ability in an anthropomorphic neurorobotic arm
title_full_unstemmed Evolution of prehension ability in an anthropomorphic neurorobotic arm
title_sort evolution of prehension ability in an anthropomorphic neurorobotic arm
publisher Frontiers Media S.A.
series Frontiers in Neurorobotics
issn 1662-5218
publishDate 2007-11-01
description In this paper, we show how a simulated anthropomorphic robotic arm controlled by an artificial neural network can develop effective reaching and grasping behaviour through a trial and error process in which the free parameters encode the control rules which regulate the fine-grained interaction between the robot and the environment and variations of the free parameters are retained or discarded on the basis of their effects at the level of the global behaviour exhibited by the robot situated in the environment. The obtained results demonstrate how the proposed methodology allows the robot to produce effective behaviours thanks to its ability to exploit the morphological properties of the robot's body (i.e. its anthropomorphic shape, the elastic properties of its muscle-like actuators and the compliance of its actuated joints) and the properties which arise from the physical interaction between the robot and the environment mediated by appropriate control rules.
topic adaptation
Evolutionary Robotics
reaching and grasping
robotic arm
url http://journal.frontiersin.org/Journal/10.3389/neuro.12.004.2007/full
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