Title :
Autonomous satellite formation assembly and reconfiguration with gravity fields
Author :
Atkins, Ella ; Pennecot, Y.
Author_Institution :
Neutral Buoyancy Res. Facility, Maryland Univ., College Park, MD, USA
Abstract :
Spacecraft formation flight may increase data coverage area and accuracy for a myriad of space-based experiments. To prevent ground operations support from scaling with number of satellites, we propose a control architecture that describes a formation as a virtual body, such that the operator controls the group as if it were a single entity. We overview the components of a satellite formation flying architecture then outline a constrained multi-agent planning approach to decompose the specified formation geometry into an optimized set of synchronized satellite waypoint sequences. To illustrate our approach, we describe a two-satellite planar Earth-orbiting formation for far-field interferometry and show results from path optimization for circular and elliptical orbits.
Keywords :
aerospace control; artificial satellites; ground support systems; multi-agent systems; path planning; radiowave interferometry; circular orbits; constrained multi-agent planning approach; control architecture; data coverage area; elliptical orbits; far-field interferometry; gravity fields; ground operations support; path optimization; satellite formation flying architecture; space-based experiments; spacecraft formation flight; synchronized satellite waypoint sequences; two-satellite planar Earth-orbiting formation; virtual body; Assembly; Astronomy; Atmospheric waves; Fuels; Geometry; Gravity; Orbits; Satellite broadcasting; Space vehicles; Trajectory;
Conference_Titel :
Aerospace Conference Proceedings, 2002. IEEE
Print_ISBN :
0-7803-7231-X
DOI :
10.1109/AERO.2002.1035631