Durability evaluation of InGaP/GaAs/Ge triple-junction solar cells in HIHT environments for Mercury exploration mission

T. Shimada, H. Toyota, A. Kukita, M. Imaizumi, K. Hirose, M. Tajima, H. Ogawa, H. Hayakawa, A. Okamoto, Y. Nozaki, H. Watabe, T. Hisamatsu
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引用次数: 8

Abstract

The Japan Aerospace Exploration Agency has been developing the Mercury Magnetospheric Orbiter (MMO), which is Japanese part of the BepiColombo mission. During its mission around Mercury, the spacecraft will be exposed to high solar irradiance of up to 11 suns, with an estimated maximum solar panel temperature of 230°C. In such an environment, solar cells are required to operate under high intensity and high temperature (HIHT) conditions. Therefore, it is necessary to evaluate the durability of solar cells to meet the power requirements throughout the mission life. We conducted a continuous operation test under HIHT conditions to examine the validity of the solar array configuration, using the interior planetary thermal vacuum chamber. Our HIHT tests clarified the following facts: (i) Transparency of the coverglass and the performance of the solar cells do not degrade and (ii) transparency of the DC93-500 adhesive in the top cell response region degrades mainly due to ultraviolet exposure at high temperatures. We decided to use AR0213 coverglass (from JDSU) with a thickness of 300 µm, which have a longer cut-on wavelength in ultraviolet region. With this configuration, the predicted decrease in Pmax due to the HIHT environment is 17.3% and that due to radiation effects is 11.0% Our new design will offer the available power at EOL of 394.2 W, which is 46.7 W greater than the required power.
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水星探测任务高温环境下InGaP/GaAs/Ge三结太阳能电池耐久性评价
日本宇宙航空研究开发机构一直在开发水星磁层轨道器(MMO),这是日本的贝皮可伦坡任务的一部分。在环绕水星的任务期间,飞船将暴露在高达11个太阳的高太阳辐照下,估计太阳能电池板的最高温度为230°C。在这种环境下,太阳能电池需要在高强度和高温(HIHT)条件下工作。因此,有必要对太阳能电池的耐久性进行评估,以满足整个任务寿命期间的电力需求。我们在高温条件下进行了连续运行测试,使用内部行星热真空室来检查太阳能电池阵列配置的有效性。我们的HIHT测试澄清了以下事实:(i)覆盖玻璃的透明度和太阳能电池的性能不会降低;(ii)在顶部电池响应区域的DC93-500粘合剂的透明度降低主要是由于高温下紫外线照射。我们决定使用厚度为300µm的AR0213盖板玻璃(来自JDSU),它在紫外区具有较长的切割波长。在这种配置下,由于高温环境导致的Pmax预测下降为17.3%,由于辐射影响导致的Pmax预测下降为11.0%。我们的新设计将提供394.2 W的EOL可用功率,比所需功率高46.7 W。
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