Title :
Vision-based relative pose estimation for autonomous rendezvous and docking
Author :
Kelsey, Jed M. ; Byrne, Jeffrey ; Cosgrove, Martin ; Seereeram, Sanjeev ; Mehra, Raman K.
Author_Institution :
Sci. Syst. Co. Inc., Woburn, MA
Abstract :
Autonomous rendezvous and docking is necessary for planned space programs such as DARPA ASTRO, NASA MSR, ISS assembly and servicing, and other rendezvous and proximity operations. Estimation of the relative pose between the host platform and a resident space object is a critical ability. We present a model-based pose refinement algorithm, part of a suite of algorithms for vision-based relative pose estimation and tracking. Algorithms were tested in high-fidelity simulation and stereo-vision hardware test bed environments. Testing indicated that in most cases, the model-based pose refinement algorithm can handle initial attitude errors up to about 20 degrees, range errors exceeding 10% of range, and transverse errors up to about 2% of range. Preliminary point tests with real camera sequences of a 1/24 scale Magellan satellite model using a simple fixed-gain tracking filter showed potential tracking performance with mean errors of < 3 degrees and < 2% of range
Keywords :
aerospace instrumentation; artificial satellites; stereo image processing; tracking filters; DARPA ASTRO; ISS assembly; ISS servicing; Magellan satellite model; NASA MSR; autonomous docking; autonomous rendezvous; fixed-gain tracking filter; model-based pose refinement algorithm; planned space programs; proximity operations; stereo-vision hardware test bed environments; vision-based relative pose estimation; Assembly systems; Cameras; Hardware; Image processing; Iterative algorithms; NASA; Navigation; Satellites; Space vehicles; Testing;
Conference_Titel :
Aerospace Conference, 2006 IEEE
Conference_Location :
Big Sky, MT
Print_ISBN :
0-7803-9545-X
DOI :
10.1109/AERO.2006.1655916