月球探测用热辐射器减尘技术的研制

C. Calle, C. Buhler, M. Hogue, M. R. Johansen, N.J. Van Suetendael, A. Chen, S. O. Case, S. Snyder, J. S. Clements, J. Moebus, J. Miller, N. D. Cox, S. Irwin
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引用次数: 8

摘要

在月球探测任务中,热辐射表面上的灰尘堆积会降低热能辐射出去的效率。1 - 2为了缓解这一问题,已经建造并测试了能够去除积聚粉尘并防止粉尘积聚的原型电动防尘罩(EDS)。EDS,一种用于月球探测系统的主动降尘技术,在过去的几年里一直在我们肯尼迪航天中心的实验室里进行开发。EDS使用静电和介电泳力去除不透明,透明,刚性和柔性表面上的灰尘。能谱仪由衬底上的电极阵列组成,衬底涂有具有高介电常数的材料。EDS用JSC-1A模拟月球尘埃和阿波罗16号样品在10−6 kPa的高真空压力下进行了测试。在本文中,我们报告了两种原型的散热器防尘罩的发展。对于第一个原型,EDS电极网格气相沉积在聚酰亚胺涂层的铝券上。AZ-93,一种适用于空间的热工漆,作为散热器的顶部涂层。对于第二个原型,银电极网格被溅射到氟乙烯聚丙烯(FEP)薄膜上,该薄膜背面涂有铝层。这些原型用JSC-1A月球尘埃兴奋剂在10−6 kPa下进行了测试。
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Development of a dust mitigation technology for thermal radiators for lunar exploration
Dust buildup on thermal radiating surfaces can reduce the efficiencies at which thermal energy can be radiated away during lunar exploration missions.1−2 To mitigate this problem, prototype Electrodynamic Dust Shields (EDS) capable of removing accumulated dust and of preventing dust accumulation have been constructed and tested. The EDS, an active dust mitigation technology for lunar exploration systems, has been under development in our laboratory at the Kennedy Space Center for the last several years. The EDS uses electrostatic and dielectrophoretic forces to remove dust from opaque, transparent, rigid, and flexible surfaces. The EDS consists of an array of electrodes on a substrate that are coated with a material possessing a high dielectric constant. The EDS has been tested with JSC-1A lunar dust simulant and with Apollo 16 samples at high vacuum pressures of the order of 10−6 kPa. In this paper, we report on the development of two types of prototype dust shields for thermal radiators. For the first prototype, the EDS electrode grid was vapor-deposited on a polyimide-coated aluminum coupon. AZ-93, a space-rated thermal paint was applied as the top coating for the thermal radiator. For the second prototype, silver electrode grids were sputtered onto fluorethylene polypropylene (FEP) films that were back coated with an aluminum layer. These prototypes were tested with JSC-1A lunar dust stimulant at 10−6 kPa.
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