DocumentCode :
1812891
Title :
ARES-III: A versatile multi-purpose all-terrain robot
Author :
Guedes, Marcelo ; Santana, Pedro ; Deusdado, P. ; Mendonca, Raphael ; Marques, F. ; Henriques, N. ; Lourenco, Andre ; Correia, Luis ; Barata, Jose ; Flores, Lorenzo
fYear :
2012
fDate :
17-21 Sept. 2012
Firstpage :
1
Lastpage :
8
Abstract :
This paper presents ARES-III, a multi-purpose service robot for robust operation in all-terrain outdoor environments. Currently in pre-production phase, ARES-III is aimed to fulfil the requirements of a robotic platform that is able to support the development of real world applications in surveillance, agriculture, environmental monitoring, and other related domains. These demanding scenarios motivate a design focused on the reliability of the mechanical platform, the scalability of the control system, and the flexibility of its self-diagnosis and error recovery mechanisms. These are key features of ARES-III often disregarded in current commercial and research platforms. First, a comprehensive set of field trials demonstrated the ability of the ARES-III chassis, made of durable materials and with no-slip quasi-omnidirectional kinematic characteristics, to perform robustly in rough terrain. Second, supported by a control system fully compliant with the wide spread Robot Operating System (ROS), the scalability of ARES-III is enforced. Finally, the integration of active self-diagnosis and error recovery mechanisms in ARES-III control system fosters long lasting operation.
Keywords :
control engineering computing; mobile robots; operating systems (computers); reliability; robot kinematics; robust control; service robots; surveillance; system recovery; terrain mapping; ARES-III chassis; ARES-III control system; ROS; active self-diagnosis; agriculture; all-terrain outdoor environment; control system scalability; durable material; environmental monitoring; error recovery mechanism; mechanical platform reliability; multipurpose all-terrain robot; multipurpose service robot; no-slip quasiomnidirectional kinematic characteristics; preproduction phase; robot operating system; robotic platform; robust operation; rough terrain; surveillance;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Emerging Technologies & Factory Automation (ETFA), 2012 IEEE 17th Conference on
Conference_Location :
Krakow
ISSN :
1946-0740
Print_ISBN :
978-1-4673-4735-8
Electronic_ISBN :
1946-0740
Type :
conf
DOI :
10.1109/ETFA.2012.6489633
Filename :
6489633
Link To Document :
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