Relay Planning in the Perseverance Rover's First 600 Solar Days on Mars

Emma Young, Ge Yang, Travis L. Wagner, Flora Ridenhour, C. Lawler, Nagin Cox
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Abstract

Since landing in Jezero Crater on Mars on February 18, 2021, the Mars 2020 mission's Perseverance rover has been performing daily operations on the Martian surface and has been collecting samples that may one day be returned to Earth. The majority of science and engineering data from the Perseverance rover is returned through the Mars orbiters operated by the National Aeronautics and Space Administration (NASA) and the European Space Agency (ESA) that make up the Mars Relay Network: Mars Reconnaissance Orbiter (MRO), Mars Odyssey (ODY), Mars Atmosphere and Volatile Evolution (MAVEN), and Trace Gas Orbiter (TGO). Prior to the rover's landing, the Mars 2020 team joined the Mars Relay Network to begin planning relay through the coordinated, multi-mission process that is the cornerstone of relay planning. The Perseverance rover has now been on the Martian surface for more than 600 Martian solar days (“sols”) with several UHF relay sessions planned and executed per sol. The Mars 2020 relay planning team has established and improved upon the recurring process and tool suite to enable both data return and forward link of rover uplink products, and continues to coordinate and negotiate relay asset usages and constraints with the Mars Science Laboratory and Insight relay planning teams. Among many accomplishments, the relay planning team has supported checkouts and commissioning of Low-Density Parity-Check (LDPC) relay link configurations, the mission's first solar conjunction period, and several rover flight software transitions. The Mars 2020 team has also been performing a checkout and commissioning campaign for the use of bitstream, or “unreliable”, relay sessions. Nominal use of bitstream relay is a new operational capability intended for the Perseverance rover that will allow specific science or engineering activities to run in parallel with the relay session, rather than pausing all other activities during relay, enabling additional and more timely data return. Pending the completion of the checkout and commissioning campaign, the operations team plans to approve and begin regular scheduling and use of bitstream UHF relay sessions beginning in 2023. This paper describes the Mars 2020 relay planning processes and tool architecture, key accomplishments (including progress for the bitstream checkout and commissioning campaign), and lessons learned and ongoing challenges during the first 600 sols of the Mars 2020 surface mission.
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毅力号火星车在火星上的前600个太阳日的中继规划
自2021年2月18日登陆火星耶泽洛陨石坑以来,“火星2020”任务的“毅力”号火星车一直在火星表面进行日常操作,并一直在收集有朝一日可能返回地球的样本。毅力号火星车的大部分科学和工程数据是通过美国国家航空航天局(NASA)和欧洲航天局(ESA)运营的火星轨道器返回的,这些轨道器组成了火星中继网络:火星勘测轨道器(MRO)、火星奥德赛(ODY)、火星大气和挥发性演化(MAVEN)和微量气体轨道器(TGO)。在火星车着陆之前,火星2020团队加入了火星中继网络,通过协调的多任务过程开始规划中继,这是中继规划的基石。“毅力”号火星车目前已经在火星表面停留了600多个火星太阳日(“sols”),每个sol都计划和执行了几次超高频中继会话。“火星2020”中继规划团队已经建立并改进了循环过程和工具套件,以实现火星车上行产品的数据返回和前向链接,并继续与火星科学实验室和“洞察”号中继规划团队协调和协商中继资产的使用和约束。在许多成就中,中继规划团队支持了低密度奇偶校验(LDPC)中继链路配置的校验和调试,任务的第一个太阳连接期,以及几个漫游车飞行软件的转换。火星2020团队也一直在进行比特流或“不可靠”中继会话的检查和调试活动。比特流中继的标称使用是毅力号火星车的一种新的操作能力,它将允许特定的科学或工程活动与中继会话并行运行,而不是在中继期间暂停所有其他活动,从而实现额外和更及时的数据返回。在检查和调试活动完成之前,运营团队计划从2023年开始批准并开始定期调度和使用比特流UHF中继会话。本文描述了火星2020中继规划过程和工具架构,关键成就(包括比特流检查和调试活动的进展),以及在火星2020表面任务的前600个sol中获得的经验教训和正在面临的挑战。
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