NISAR对JPL/ISRO联合作战的独特挑战和方法

D. Mohr, J. Doubleday
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引用次数: 2

摘要

NASA-ISRO合成孔径雷达(NISAR)任务是NASA和印度空间研究组织(ISRO)之间的第一次主要合作,并将返回前所未有的科学数据量(在其主要任务期间约5000太字节)。天文台将在约750公里的平均高度,利用两个不同的SAR波段,提供地壳演化和状态的详细资料,包括冰川的减少、生态系统的变化,以及地震、飓风和石油泄漏等自然和人为灾害。JPL将提供NISAR的l波段SAR、GPS接收器、有效载荷数据系统、固态记录仪和高速ka波段电信系统。ISRO将提供卫星总线和s波段SAR。JPL和ISRO都提供关键的飞行部件,NISAR的操作将具有内在的互动性。再加上巨大的地理和时间差异,这给作业带来了一系列独特的挑战。该项目应该如何权衡每个中心对其特定飞行和地面组件的操作责任,以及JPL和ISRO保持天文台和地面系统态势感知的需要?为了准备2022年1月的发射,NISAR任务系统努力在中心间协作和每个中心的个人责任之间找到适当的平衡。为了最大限度地降低操作接口的复杂性,NISAR仍然必须执行综合的长期和短期科学规划,执行联合SAR观测所需的协调指挥,执行所有ka波段下行链路所需的协调指挥,以及异常响应和恢复。本文描述了NISAR解决天文台联合运作中每一个挑战的方法。
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NISAR's Unique Challenges and Approach to Robust JPL/ISRO Joint Operations
The NASA-ISRO Synthetic Aperture Radar (NISAR) mission is the first major collaboration between NASA and the Indian Space Research Organisation (ISRO), and will return an unprecedented amount of science data (~5,000 terabytes during its prime mission). From a mean altitude of ~750km, the Observatory will use two distinct bands of SAR to provide detailed insight into the evolution and state of Earth's crust, including the abatement of glaciers, ecosystem changes, and natural and man-made disasters, such as earthquakes, hurricanes, and oil spills. JPL will provide NISAR's L-band SAR, GPS receivers, a payload data system, solid state recorder, and a high-rate Ka-band telecom system. ISRO will provide the satellite bus and an S-band SAR. With both JPL and ISRO providing key flight components, NISAR operations will be inherently interactive. This, combined with the substantial geographic and time differences, brings a unique set of operational challenges. How should the project weigh each Center's responsibility for operation of their specific flight and ground components against the need for both JPL and ISRO to maintain situational awareness of the Observatory and Ground System? In preparation for launch in January 2022, the NISAR Mission System has worked to find the right balance between inter-Center collaboration and each Center's individual responsibilities. With the goal of minimizing the complexity of operational interfaces, NISAR must still perform – integrated long and short-term science planning, – coordinated commanding necessary to execute joint SAR observations, – coordinated commanding necessary to carry out all of the Ka-band downlinks, and – anomaly response and recovery. This paper describes NISAR's approach to addressing each of these challenges to joint operation of the Observatory.
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