美国宇航局火星2020漫游者电磁兼容性测试和分析活动

Edward Gonzales, Nelson Huang
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引用次数: 0

摘要

美国宇航局的火星2020“毅力号”探测器的发射窗口将于2020年7月开启,预计将于2021年2月着陆,其任务目标是寻找可居住性的证据,寻找过去生命的生物特征,收集和保存样本,以便将来可能返回地球,并为未来的人类火星任务做准备。火星车平台类似于2012年登陆的火星科学实验室(MSL)“好奇号”火星车,但包含一套新的科学仪器和对现有功能的升级:七个新的和/或升级的科学有效载荷,一个升级的手臂和采样系统,以及一架直升机演示。这些变化——以及同时操作更多火星车子系统从而收集更多科学数据的新效率目标——带来了新的电磁兼容性(EMC)挑战。在本文中,我们将从电磁环境的角度描述确保火星2020任务成功的运动:1)确认现有MSL传统子系统和EMC要求与新的火星2020任务目标兼容;2)在项目早期与工程师和科学家合作,在硬件组装之前识别和评估风险,并执行雄心勃勃的风险降低测试;3)根据量身定制的MIL-STD-461F要求开展全面的子系统资格测试计划,偶尔会导致重新设计。4)综合收集到的数据进行详细的分析,以在系统层面上做出风险知情的决策。航天器成功地完成了所有三个计划的系统级测试,在所有任务阶段展示了自兼容性,对电磁干扰的影响最小。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Electromagnetic Compatibility Test and Analysis Campaign of NASA's Mars 2020 Rover
NASA's Mars 2020 Perseverance Rover—with a launch window opening July 2020, and landing expected February 2021—has mission objectives to look for evidence of habitability, seek biosignatures of past life, collect and cache samples for possible future return to Earth, and prepare for future human missions to Mars. The Rover platform is similar to the previous Mars Science Laboratory (MSL) “Curiosity” rover that landed in 2012 but contains a new suite of scientific instruments and upgrades to existing functionality: seven new and/or upgraded scientific payloads, an upgraded arm and sampling system, and a Helicopter demonstration. These changes—along with new efficiency goals to operate more Rover subsystems concurrently and thus collect more science-presented new electromagnetic compatibility (EMC) challenges. In this paper, we will describe the campaign to ensure Mars 2020 mission success from an electromagnetic environment perspective: 1) confirming existing MSL heritage subsystems and EMC requirements were compatible with the new Mars 2020 mission objectives, 2) engaging with engineers and scientists early in the project to identify and evaluate risks before hardware assembly and performing ambitious risk reduction tests, 3) undertaking a comprehensive subsystem qualification test program based on tailored MIL-STD-461F requirements, occasionally leading to redesign, 4) synthesizing the data collected to perform detailed analyses toward the goal of making risk-informed decisions at a system level. The spacecraft successfully completed all three planned system level tests, demonstrating self-compatibility with minimal impact to operations from electromagnetic interference in all mission phases.
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