首页> 外文会议>Thirty-Eighth Space Congress, Apr 30 - May 4, 2001, Cape Canaveral, Florida >Smarter Software For Enhanced Vehicle Health Monitoring And Inter-Planetary Exploration
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Smarter Software For Enhanced Vehicle Health Monitoring And Inter-Planetary Exploration

机译:更智能的软件,用于增强的车辆健康监控和行星际探测

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The existing philosophy for space mission control was born in the early days of the space program when technology did not exist to put significant control responsibility onboard the spacecraft. NASA relied on a team of ground control experts to troubleshoot systems when problems occurred. As computing capability improved, more responsibility was handed over to the systems software. However, there is still a large contingent of both launch and flight controllers supporting each mission. New technology can update this philosophy to increase mission assurance and reduce the cost of inter-planetary exploration. The advent of model-based diagnosis and intelligent planning software enables spacecraft to handle most routine problems automatically and allocate resources in a flexible way to realize mission objectives. The manifests for recent missions include multiple subsystems and complex experiments. Spacecraft must operate at longer distances from earth where communications delays make earthbound command and control impractical. NASA's Ames Research Center (ARC) has demonstrated the utility of onboard diagnosis and planning with the Remote Agent experiment in 1999. KSC has pioneered model-based diagnosis and demonstrated its utility for ground support operations. KSC and ARC are cooperating in research to improve the state of the art of this technology. This paper highlights model-based reasoning applications for Moon and Mars missions including in-situ resource utilization and enhanced vehicle health monitoring.
机译:现有的太空任务控制哲学诞生于太空计划的早期,当时尚不存在将重大控制责任置于航天器上的技术。 NASA依靠地面控制专家团队在发生问题时对系统进行故障排除。随着计算能力的提高,更多的责任移交给了系统软件。但是,仍然有很大数量的发射和飞行控制器来支持每个任务。新技术可以更新这种理念,以增加任务保证并降低行星际探索的成本。基于模型的诊断和智能计划软件的出现使航天器能够自动处理大多数常规问题,并以灵活的方式分配资源以实现任务目标。最近执行任务的清单包括多个子系统和复杂的实验。航天器必须在距离地球更长的距离上运行,因为通信延迟使对地球的指挥和控制变得不切实际。 NASA的Ames研究中心(ARC)在1999年的Remote Agent实验中展示了机载诊断和计划的实用性。KSC率先提出了基于模型的诊断,并展示了其在地面支持作战中的实用性。 KSC和ARC正在合作进行研究,以改善该技术的最新水平。本文重点介绍了月球和火星任务基于模型的推理应用程序,包括现场资源利用和增强的车辆健康状况监控。

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