DocumentCode
3172104
Title
Localization and Control of an Aerial Vehicle through Chained, Vision-Based Pose Reconstruction
Author
Kaiser, K. ; Gans, N. ; Dixon, W.
Author_Institution
Univ. of Florida, Gainesville
fYear
2007
fDate
9-13 July 2007
Firstpage
5934
Lastpage
5939
Abstract
While a global positioning system (GPS) is the most widely used sensor modality for aircraft navigation, researchers have been motivated to investigate other navigational sensor modalities because of the desire to operate in GPS denied environments. Due to advances in computer vision and control theory, monocular camera systems have received growing interest as an alternative/collaborative sensor to GPS systems. Cameras can act as navigational sensors by detecting and tracking feature points in an image. One limiting factor in this method is the current inability to relate feature points as they enter and leave the camera field of view. This paper continues research efforts to provide a vision- based position estimation method for aircraft guidance. A recently developed estimation method is integrated with a new, nonlinear flight model of a aircraft. The vision-based estimation scheme provides input directly to the vehicle guidance system and autopilot.
Keywords
aircraft landing guidance; closed loop systems; computer vision; control system synthesis; image reconstruction; pose estimation; GPS systems; Global Positioning System; aerial vehicle control; aerial vehicle localization; autopilot design; chained vision-based pose reconstruction; closed loop aircraft guidance; computer vision; control theory; monocular camera systems; nonlinear flight model; vision-based position estimation method; Aircraft navigation; Cameras; Collaboration; Computer vision; Control theory; Global Positioning System; Image reconstruction; Image sensors; Sensor systems; Vehicles;
fLanguage
English
Publisher
ieee
Conference_Titel
American Control Conference, 2007. ACC '07
Conference_Location
New York, NY
ISSN
0743-1619
Print_ISBN
1-4244-0988-8
Electronic_ISBN
0743-1619
Type
conf
DOI
10.1109/ACC.2007.4282896
Filename
4282896
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