Array-design considerations for the Solar Probe Plus mission

A. Boca, P. Blumenfeld, K. Crist, G. Flynn, J. Mccarty, P. Patel, C. Sarver, P. Sharps, R. Stall, M. Stan, C. Tourino
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引用次数: 4

Abstract

The NASA Solar Probe Plus (SPP) mission will fly into and study the Sun's corona, reaching as close as 8.5 solar radii from the surface of the Sun. Power generation for the spacecraft will be provided by two solar array wings, which are being designed and built by Johns Hopkins University Applied Physics Laboratory and Emcore Photovoltaics. SPP will get closer to the Sun than any previous mission, and the solar array will therefore need to operate reliably under unusually high irradiances, temperatures, and angles of incidence, a situation that introduces intriguing challenges for the array design. This paper presents an overview of the array-geometry optimization method we have developed, the goal of which is to allow for the most benign nominal operating conditions possible, given the mission requirements for minimum power generation and maximum heat dissipation. We also outline the engineering trade-offs associated with the available options for cell lay-down onto the panel, including the non-standard material choices necessary for optimal thermal, mechanical, optical and electrical performance and robustness of the array. We conclude by presenting the near-term test plan included in the SPP array-development program, and summarize the data from preliminary measurements performed to date.
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太阳探测器+任务的阵列设计考虑
美国宇航局的太阳探测器Plus (SPP)任务将飞入并研究太阳的日冕,距离太阳表面近至太阳半径的8.5倍。航天器的发电将由两个太阳能阵列机翼提供,由约翰霍普金斯大学应用物理实验室和Emcore光伏公司设计和制造。SPP将比以往任何一次任务都更接近太阳,因此太阳能阵列需要在异常高的辐照度、温度和入射角下可靠地运行,这种情况给阵列设计带来了有趣的挑战。本文概述了我们开发的阵列几何优化方法,其目标是考虑到最小发电量和最大散热的任务要求,允许最良性的标称运行条件。我们还概述了与电池放置到面板上的可用选项相关的工程权衡,包括优化热、机械、光学和电气性能以及阵列稳健性所需的非标准材料选择。最后,我们介绍了SPP阵列开发计划中的近期测试计划,并总结了迄今为止进行的初步测量数据。
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