DocumentCode
1104013
Title
Real-time indoor autonomous vehicle test environment
Author
How, Jonathan P. ; Bethke, B. ; Frank, Adrian ; Dale, Daniel ; Vian, John
Author_Institution
Massachusetts Inst. of Technol., Cambridge
Volume
28
Issue
2
fYear
2008
fDate
4/1/2008 12:00:00 AM
Firstpage
51
Lastpage
64
Abstract
To investigate and develop unmanned vehicle systems technologies for autonomous multiagent mission platforms, we are using an indoor multivehicle testbed called real-time indoor autonomous vehicle test environment (RAVEN) to study long-duration multivehicle missions in a controlled environment. Normally, demonstrations of multivehicle coordination and control technologies require that multiple human operators simultaneously manage flight hardware, navigation, control, and vehicle tasking. However, RAVEN simplifies all of these issues to allow researchers to focus, if desired, on the algorithms associated with high-level tasks. Alternatively, RAVEN provides a facility for testing low-level control algorithms on both fixed- and rotary-wing aerial platforms. RAVEN is also being used to analyze and implement techniques for embedding the fleet and vehicle health state (for instance, vehicle failures, refueling, and maintenance) into UAV mission planning. These characteristics facilitate the rapid prototyping of new vehicle configurations and algorithms without requiring a redesign of the vehicle hardware. This article describes the main components and architecture of RAVEN and presents recent flight test results illustrating the applications discussed above.
Keywords
aerospace robotics; aerospace testing; mobile robots; multi-robot systems; navigation; remotely operated vehicles; RAVEN environment; Real-time indoor Autonomous Vehicle test ENvironment; UAV mission planning; autonomous multiagent mission platform; controlled environment; fixed-wing aerial platform; flight test; indoor multivehicle testbed; long-duration multivehicle mission; low-level control algorithms; multivehicle control; multivehicle coordination; navigation; rapid prototyping; rotary-wing aerial platform; unmanned vehicle systems; vehicle configuration; vehicle failure; vehicle health state; vehicle maintenance; vehicle refueling; vehicle tasking; Control systems; Hardware; Humans; Mobile robots; Navigation; Real time systems; Remotely operated vehicles; System testing; Technology management; Unmanned aerial vehicles;
fLanguage
English
Journal_Title
Control Systems, IEEE
Publisher
ieee
ISSN
1066-033X
Type
jour
DOI
10.1109/MCS.2007.914691
Filename
4472379
Link To Document