DocumentCode :
3500350
Title :
Visually-guided adaptive robot (ViGuAR)
Author :
Livitz, Gennady ; Ames, Heather ; Chandler, Ben ; Gorchetchnikov, Anatoli ; Léveillé, Jasmin ; Vasilkoski, Zlatko ; Versace, Massimiliano ; Mingolla, Ennio ; Snider, Greg ; Amerson, Rick ; Carter, Dick ; Abdalla, Hisham ; Qureshi, Muhammad Shakeel
Author_Institution :
Dept. of Cognitive & Neural Syst., Boston Univ., Boston, MA, USA
fYear :
2011
fDate :
July 31 2011-Aug. 5 2011
Firstpage :
2944
Lastpage :
2951
Abstract :
A neural modeling platform known as Cog ex Machina1 (Cog) developed in the context of the DARPA SyNAPSE2 program offers a computational environment that promises, in a foreseeable future, the creation of adaptive whole-brain systems subserving complex behavioral functions in virtual and robotic agents. Cog is designed to operate on low-powered, extremely storage-dense memristive hardware3 that would support massively-parallel, scalable computations. We report an adaptive robotic agent, ViGuAR4, that we developed as a neural model implemented on the Cog platform. The neuromorphic architecture of the ViGuAR brain is designed to support visually-guided navigation and learning, which in combination with the path-planning, memory-driven navigation agent - MoNETA5 - also developed at the Neuromorphics Lab at Boston University, should effectively account for a wide range of key features in rodents´ navigational behavior.
Keywords :
adaptive control; biomimetics; learning systems; navigation; neurocontrollers; robot vision; Boston University; Cog ex Machina; DARPA SyNAPSE program; MoNETA; Neuromorphics Lab; ViGuAR brain; adaptive whole-brain system; complex behavioral function; computational environment; learning; low-powered extremely storage-dense memristive hardware; massively-parallel scalable computation; memory-driven navigation agent; neural modeling platform; neuromorphic architecture; path planning; robotic agent; rodent navigational behavior; virtual agent; visually-guided adaptive robot; visually-guided navigation; Collision avoidance; Image color analysis; Navigation; Robot kinematics; Robot sensing systems; Visualization;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Neural Networks (IJCNN), The 2011 International Joint Conference on
Conference_Location :
San Jose, CA
ISSN :
2161-4393
Print_ISBN :
978-1-4244-9635-8
Type :
conf
DOI :
10.1109/IJCNN.2011.6033608
Filename :
6033608
Link To Document :
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