Design of a CubeSat thermal control system for battery module

E. A. Boltov, N. Elisov, A. Kumarin, I. Lomaka, S. Shafran
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Abstract

One of the most critical nanosatellite sub-systems is the energy power system. Batteries included in it are subject to a significant temperature effect. Therefore, in order to increase the efficiency of the energy power system and increase the service life of the batteries, it is necessary to use a thermal control system. The paper proposes an approach to designing a system for ensuring the thermal regime of a nanosatellite battery module. The approach consists of two stages. At the first stage, a series of thermal vacuum tests of the system is carried out. As part of the tests, the thermodynamic properties of the elements of the energy supply system (specific heat capacity and thermal conductivity) are evaluated. The evaluation is based on the results of processing samples of temperature measurements of individual elements of the system. The criterion for matching the obtained solution is the value of the emissivity of the components. At the second stage, the cooling of the battery pack during the flight of the nanosatellite in the shadow part of the orbit is estimated. The evaluation takes into account the experimental values of the thermodynamic values of the components of the system. Thus, an estimate was made «from above» of the radiated power of the energy power system. On the basis of experimental and calculated data, the adequacy of the selected power of the battery block heater was assessed. The article provides an experimental development of the proposed approach, the mathematical models used and equivalent schemes for heat simulation of the battery module.
立方体卫星电池模块热控系统的设计
纳米卫星最关键的子系统之一是能源动力系统。其中包含的电池受到明显的温度影响。因此,为了提高能源动力系统的效率,增加蓄电池的使用寿命,有必要采用热控系统。本文提出了一种纳米卫星电池模块热态保证系统的设计方法。该方法包括两个阶段。在第一阶段,对系统进行了一系列的热真空试验。作为测试的一部分,评估了能源供应系统元素的热力学特性(比热容和导热系数)。评估是基于对系统各个元件的温度测量处理样品的结果。所得解的匹配准则是各组分的发射率值。在第二阶段,估计了纳米卫星在轨道阴影部分飞行期间电池组的冷却情况。评估考虑了系统各组成部分的热力学值的实验值。因此,对能源电力系统的辐射功率进行了“自上而下”的估计。在实验和计算数据的基础上,评估了电池块加热器所选功率的充分性。本文给出了该方法的实验进展、所使用的数学模型和电池模块热模拟的等效方案。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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