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Performance Analysis of Landing Point Designation Technique Based on Relative Distance to Hazard for Lunar Lander
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 Title & Authors
Performance Analysis of Landing Point Designation Technique Based on Relative Distance to Hazard for Lunar Lander
Lee, Choong-Min; Park, Young-Bum; Park, Chan-Gook;
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 Abstract
Lidar-based hazard avoidance landing system for lunar lander calculates hazard cost with respect to the desired local landing area in order to identify hazard and designate safe landing point where the cost is minimum basically using slope and roughness of the landing area. In this case, if the parameters are only considered, chosen landing target can be designated near hazard threatening the lander. In order to solve this problem and select optimal safe landing point, hazard cost based on relative distance to hazard should not be considered as well as cost based on terrain parameters. In this paper, the effect of hazard cost based on relative distance to hazard on safe landing performance was analyzed and it was confirmed that landing site designation with two relative distances to hazard results in the best safe landing performance by an experiment using three-dimensional depth camera.
 Keywords
Lidar(Light detection and ranging);HDA;Depth camera;
 Language
Korean
 Cited by
1.
Development of Collision Prevention System for Agricultural Unmanned Helicopter, Journal of the Korean Society for Aeronautical & Space Sciences, 2016, 44, 7, 611  crossref(new windwow)
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