航天器太阳能电池阵电性能仿真系统的研制

Tao Li, Wei Li, Lei Yang
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引用次数: 2

摘要

航天器电力系统(EPS)采用光伏阵列(PVA)为平台和用户负载供电。因此,预测PVA发电能力对航天器的任务规划和在轨飞行运行验证具有重要意义。聚乙烯醇性能主要取决于辐照水平、温度和太阳能阵列遮挡。为了提供一种准确、灵活的分析航天器PVA性能的方法,作者开发了航天器太阳阵电气性能仿真系统(SAEPS)。SAEPS由5个模块组成:仿真设置模块、轨道力学模块、几何模型控制模块、阴影分析模块、供电能力分析模块。建立了在轨辐射强度、温度和阴影条件下光伏电池的电流-电压(I-V)模型。建立了由光伏电池、旁路二极管和分块二极管组成的PV串模型。PVA的输出电流是在预先设定的母线电压下将所有串的输出电流相加得到的。本文对某典型航天器进行了仿真。结果表明,该方法适用于任意光照水平、温度和阴影模式,精度比传统方法提高了20%。
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Development of spacecraft solar array electrical performance simulation system
The spacecraft electrical power system (EPS) employs photovoltaic array (PVA) to supply power to platform and user loads. Thus, it is important to predict power production capability of PVA for spacecraft mission planning and certification of on-orbit flight operating. The PVA performance is primarily determined by irradiation level, temperature, and solar array shadowing. To provide an accurate and flexible method for analyzing spacecraft PVA performance, the author developed spacecraft Solar Array Electrical Performance Simulation system (SAEPS). The SAEPS was consisted of 5 modules: simulation setting module, orbit mechanics module, geometric model control module, shadow analysis module, power supply capability analysis module. The current vs. voltage (I-V) model of photovoltaic (PV) cell under on-orbit irradiation intensity, temperature and shadow was built. The model of PV string, which is composed of PV cells, bypass diodes and block diodes, is built. Output current of PVA is obtained by summing all strings output currents at predefined bus voltage. Simulation was performed for a typical spacecraft in this paper. Results show this method is applicable to arbitrary illumination levels, temperatures and shadow patterns, and accuracy improved 20% compared to traditional method.
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