Technology for manned space flight is mature and has an extensive history of the use of man-in-the-loop rendezvous and docking, but there is no history of automated rendezvous and docking. Sensors exist that can operate in the space environment. The Shuttle radar can be used for ranges down to 30 meters, Japan and France are developing laser rangers, and considerable work is going on in the U.S. However, there is a need to validate a flight qualified sensor for the range of 30 meters to contact. The number of targets and illumination patterns should be minimized to reduce operation constraints with one or more sensors integrated into a robust system for autonomous operation. To achieve system redundancy, it is worthwhile to follow a parallel development of qualifying and extending the range of the 0-12 meter MSFC sensor and to simultaneously qualify the 0-30(+) meter JPL laser ranging system as an additional sensor with overlapping capabilities. Such an approach offers a redundant sensor suite for autonomous rendezvous and docking. The development should include the optimization of integrated sensory systems, packaging, mission envelopes, and computer image processing to mimic brain perception and real-time response. The benefits of the Global Positioning System in providing real-time positioning data of high accuracy must be incorporated into the design. The use of GPS-derived attitude data should be investigated further and validated.
Supervised Autonomous Rendezvous and Docking System Technology Evaluation (Abstract Only)
1991
2 pages
Report
Keine Angabe
Englisch
Manned Spacecraft , Unmanned Spacecraft , Astronautics , Navigation & Guidance System Components , Autonomous navigation , Laser range finders , Orbital rendezvous , Spacecraft docking , Aerospace environments , Autonomy , Manned space flight , Radar targets , Shuttle imaging radar , Attitude (Inclination) , Global positioning system , Image processing , Laser applications , Real time operation , Redundancy