Title :
Neural mechanisms for training autonomous robots
Author_Institution :
Dept. of Electr. & Comput. Eng., Queensland Univ., Brisbane, Qld., Australia
Abstract :
Minimalist neural mechanisms are suitable tools for programming and training autonomous robots. This paper explores the limitations of hand-crafted minimalist robot control mechanisms based on a neural paradigm, and then shows that these mechanisms are well suited to robot training using well understood neural learning mechanisms. Training a robot is more powerful than other methods more commonly used for robot learning (such as reinforcement learning and genetic techniques). A trained robot is told more than whether it was wrong or right for a particular action or sequence (reinforcement learning), the robot is also told what it should have done (supervised learning). Robots can hence develop appropriate behaviour much more rapidly. The neural mechanisms and training techniques have been developed on a kinematically realistic simulator. The mechanisms have been ported from simulated vehicles to a real vision guided robot: CORGI. Results from the simulation and CORGI are presented
Keywords :
learning (artificial intelligence); mobile robots; path planning; perceptrons; robot kinematics; robot programming; robot vision; CORGI; autonomous robots; hand-crafted minimalist robot control mechanisms; kinematically realistic simulator; minimalist neural mechanisms; neural learning mechanisms; real vision guided robot; reinforcement learning; supervised learning; Computational modeling; Humans; Mobile robots; Neural networks; Orbital robotics; Robot programming; Robot sensing systems; Supervised learning; Vehicle driving; Wheels;
Conference_Titel :
Mechatronics and Machine Vision in Practice, 1997. Proceedings., Fourth Annual Conference on
Conference_Location :
Toowoomba, Qld.
Print_ISBN :
0-8186-8025-3
DOI :
10.1109/MMVIP.1997.625324