火星全球勘测者(MGS)高温生存太阳能电池阵列

P. Stella, R. Ross, B.S. Smith, G. Glenn, K.S. Sharmit
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引用次数: 1

摘要

MGS任务是在NASA新的“更快、更好、更便宜”指导方针下进行的首批主要行星任务之一。具有讽刺意味的是,任务要求使MGS太阳能阵列成为NASA建造的最具挑战性的设计之一。该阵列不仅包括硅和砷化镓/锗板,而且太阳能阵列将用于在火星大气上层区域对航天器进行空气制动。因此,尽管火星任务通常以低温为特征,但航空制动对温度的要求接近180/spl度/C,比以往任何阵列所经历的都要高。阵列的大小受到质量和面积的严格限制。由于航空制动发生在任务的早期,因此有必要在随后的两万次低温热循环中存活下来。此外,磁力计直接放置在阵列结构上要求电路感应磁矩最小。本文概述了该阵列的设计和性能。此外,还详细讨论了耐高温性能的设计与开发。
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Mars Global Surveyor (MGS) high temperature survival solar array
The MGS mission is one of the first major planetary missions conducted under the new NASA Faster, Better, Cheaper guidelines. Ironically, mission requirements make the MGS solar array one of the most challenging designs built for NASA. Not only will the array include silicon and GaAs/Ge panels, but the solar array will be used to aerobrake the spacecraft in the upper regions of the Martian atmosphere. Consequently, even though a mission to Mars is normally typified by cold temperatures, aerobraking imposes a high temperature requirement of nearly 180/spl deg/C, higher than that experienced by any previous array. The array size is tightly constrained by mass and area. Since the aerobraking occurs early in the mission, it is necessary to subsequently survive up to 20000 lower temperature thermal cycles. Furthermore, the location of a magnetometer directly on the array structure requires the minimization of circuit induced magnetic moments. This paper provides an overview of the array design and performance. In addition, the high temperature capable design and development are discussed in detail.
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