对地观测贸易空间分析的有效覆盖方法

I. J. Tapia-Tamayo, P. Grogan
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引用次数: 0

摘要

分布式航天器任务模拟是用于任务空间探索的长时间模拟。仿真运行时间随着卫星数量、仿真持续时间和目标点的增加而增加。未来地球观测DSM模拟利用GEOS-5 Nature Run数据。GEOS-5数据库以30分钟的时间步长提供了两年的天气模拟数据,风暴被表示为目标点。使用GEOS-5数据库模拟dsm导致需要一种有效的覆盖方法,以减少模拟运行时间,因为GEOS-5数据库提供了任务观察的数千个目标点。我们开发了一种新的有效的覆盖方法,比目前的最小仰角覆盖方法执行得更快。新方法使用两种投影方法在2D地图上创建覆盖区域。两种投影方法(圆形和直线)依赖于在一段时间间隔内收集地面轨道位置,并在每个地面轨道位置上投影传感器图像。结果表明,对于分布在全球约1700个目标点的1小时仿真,该方法提供了一个加速因子约为950的配置,并且具有较高的精度。本研究提出了这两种覆盖方法的权衡分析,以最大限度地减少模拟运行时间,同时最大限度地提高准确性。
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Efficient Coverage Methods for Earth Observing Tradespace Analysis
Distributed Spacecraft Mission simulations are long-running simulations for mission tradespace exploration. The simulation running time increases as the number of satellites, simulation duration, and target points increases. Future Earth Observing DSM simulations utilize GEOS-5 Nature Run data. The GEOS-5 database provides weather simulation data for two years with a 30-minute timestep and storms are represented as target points. Simulating DSMs with the GEOS-5 database leads to the need for an efficient coverage method that reduces simulation run time because the GEOS-5 database provides thousands of target points to observe by a mission. We develop a new and efficient coverage methodology that performs faster than the current minimum elevation angle coverage method. The new approach uses two projection methods to create a coverage area on a 2D map. The two projections methods (circular and line) rely on collecting ground track position over a time interval and projecting sensor swath over each ground track position. The results show that the methodology provides a configuration with a speedup factor of approximately 950 and relatively high accuracy for a one-hour simulation with about 1700 target points distributed globally. This study presents a trade-off analysis for these two coverage methods to minimize simulation run time while maximizing accuracy.
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