ODISSEE - A proposal for demonstration of a solar sail in Earth orbit

被引:0
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作者
Leipold, M [1 ]
Garner, CE [1 ]
Freeland, R [1 ]
Herrmann, A [1 ]
Noca, M [1 ]
Pagel, G [1 ]
Seboldt, W [1 ]
Sprague, G [1 ]
Unckenbold, W [1 ]
机构
[1] DLR, German Aerosp Ctr, Inst Planetary Explorat, Cologne, Germany
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中图分类号
V [航空、航天];
学科分类号
08 ; 0825 ;
摘要
A recent pre-phase-A study conducted cooperatively between DLR and NASA/JPL concluded that a low-cost solar sail technology demonstration mission in Earth orbit is feasible. Such a mission, nicknamed ODISSEE (Orbital Demonstration of an Innovative, Solar Sail driven Expandable structure Experiment), is the recommended approach for the development of this advanced concept using solar radiation pressure for primary propulsion and attitude control. The mission, proposed for launch in 2001, would demonstrate and validate the basic principles of sail fabrication, packaging, storage, deployment, and control. The demonstration mission scenario comprises a low-cost 'piggy back' launch of a sailcraft with a total mass of about 80kg on ARIANE 5 into a geostationary transfer orbit, where a 40m x 40m square sail would be deployed. The aluminized sail film is folded and packaged in small storage containers, upon release the sail would be supported by deployable light-weight carbon fiber booms, A coilable 10m central mast is attached to the center of the sail assembly with a 2DoF gimbal, and connected to the spacecraft. Attitude control is performed passively by gimbaling the central mast to offset the center-of-mass to the center-of-pressure generating an external torque due to solar radiation pressure, or actively using a cold-gas micro-thruster system. By proper orientation of the sail towards the Sun during each orbit, the orbital energy can be increased, such that the solar sail spacecraft raises its orbit. After roughly 550 days a lunar polar flyby would be performed, or the sail might be used for orbit capture about the Moon. On-board cameras are foreseen to observe the sail deployment, and an additional science payload could provide remote sensing data of the Earth and also of previously not very well explored lunar areas.
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页码:245 / 254
页数:10
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