近地天体勘测项目初步设计

T. Hoffman, C. Lawler, M. Lysek, A. Murray, Pavani Peddada, M. Rokey, M. Vaquero, A. Mainzer, Jason J. Andersen, Timothy Sayer, M. Veto
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引用次数: 0

摘要

近地天体探测器(NEOS)目前正在进行初步设计活动,并准备进入该项目的详细设计阶段。近地天体测量员的设计目的是利用红外成像来探测、分类和表征近地天体。NEOS项目响应了美国国家研究委员会的报告《保卫地球:近地天体调查和减灾战略》(2010年)、美国国家近地天体准备战略和行动计划(2018年6月)以及美国宇航局行星防御协调办公室(PDCO)的目标。该项目在最近的NASA授权法案中被确定为高优先级项目。近地天体项目的目标是:(1)通过对近地天体进行全面调查,确定近地天体(小行星和彗星)对地球造成的影响危害;(2)获取可能构成冲击危险的单个物体的详细物理特征数据;(3)确定具有潜在危险的近地天体的全部特征,通过准确确定物体尺寸和物理特性,协助确定撞击能量,从而为潜在的减灾战略提供信息。该任务将朝着小乔治·e·布朗近地天体调查计划的目标取得重大进展,该计划的目标是探测、跟踪、编目和描述至少90%直径等于或大于140米的近地天体。该项目是NASA-JPL、亚利桑那大学和工业界之间的合作,鲍尔航空航天公司提供了航天器和关键仪器元件。本文将描述NEOS项目在初步设计阶段执行的关键活动和成就,并描述这些活动和成就如何使整个任务变得成熟。
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Near-Earth Object Surveyor Project Preliminary Design
The Near-Earth Object Surveyor (NEOS) is currently undergoing preliminary design activities and preparing to enter the detailed design phase of the project. NEO Surveyor is to designed to detect, categorize and characterize NEOs using infrared imaging. The NEOS project responds to National Research Council's report Defending Planet Earth: Near-Earth Object Surveys & Hazard Mitigation Strategies (2010), the U. S. National Near-Earth Object Preparedness Strategy and Action Plan (June 2018), and the objectives of NASA's Planetary Defense Coordination Office (PDCO). The project was identified as a high priority project in the recent NASA Authorization Act. The goals of the NEOS project are to: (1) identify impact hazards to the Earth posed by NEOs (both asteroids and comets) by performing a comprehensive survey of the NEO population; (2) obtain detailed physical characterization data for individual objects that are likely to pose an impact hazard; (3) characterize the entire population of potentially hazardous NEOs to inform potential mitigation strategies by assisting the determination of impact energies through accurate object size determination and physical properties. The mission will make significant progress toward the George E. Brown, Jr. NEO Survey Program objective of detecting, tracking, cataloging, and characterizing at least 90% of NEOs equal to or larger than 140 m in diameter. The project is a collaboration between NASA-JPL, the University of Arizona and industry, with Ball Aerospace notably providing the spacecraft and key instrument elements. This paper will describe the key activities and accomplishments performed by the NEOS Project during the preliminary design phase and describe how these have matured the overall mission.
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