Abstract:
Remote operation of robots for rescue purpose requires wireless network to transmit control data and video data, however the communication infrastructure cannot always be...Show MoreMetadata
Abstract:
Remote operation of robots for rescue purpose requires wireless network to transmit control data and video data, however the communication infrastructure cannot always be used in the case of disaster. Thus the self-organized network needs to be constructed which consequently requires multi-hop relayed ad-hoc network. Because the robot will be used inside the building where the direct wireless communication between the base station and the leader robot. This paper propose a control scheme which aims at the optimum deployment of multi-relay robots using virtual force estimated by the Bayesian filtering based on the state of communication from the received signal strength and location of each robots. Detail of the scheme and simulation results are shown. Experimental results which are conducted with real mobile robots are also shown.
Date of Conference: 07-09 November 2013
Date Added to IEEE Xplore: 09 January 2014
Electronic ISBN:978-1-4799-2368-7
ISSN Information:
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- IEEE Keywords
- Index Terms
- Wireless Networks ,
- Robot Control ,
- Mobile Robot ,
- Received Signal Strength ,
- Control Of Mobile Robots ,
- Base Station ,
- Ad Hoc Networks ,
- Communication Conditions ,
- Bayesian Filtering ,
- Virtual Force ,
- Numerical Simulations ,
- Particle Filter ,
- System Noise ,
- Voronoi Diagram ,
- Compact Manifold ,
- Obstacle Avoidance ,
- Real Field ,
- Building Activities ,
- Radio Propagation ,
- Position Of The Robot ,
- Received Signal Strength Indicator ,
- Relay Nodes
Keywords assist with retrieval of results and provide a means to discovering other relevant content. Learn more.
- IEEE Keywords
- Index Terms
- Wireless Networks ,
- Robot Control ,
- Mobile Robot ,
- Received Signal Strength ,
- Control Of Mobile Robots ,
- Base Station ,
- Ad Hoc Networks ,
- Communication Conditions ,
- Bayesian Filtering ,
- Virtual Force ,
- Numerical Simulations ,
- Particle Filter ,
- System Noise ,
- Voronoi Diagram ,
- Compact Manifold ,
- Obstacle Avoidance ,
- Real Field ,
- Building Activities ,
- Radio Propagation ,
- Position Of The Robot ,
- Received Signal Strength Indicator ,
- Relay Nodes