Procedures for cognitive and synergetic observation and proactive control of power capacity of nickel-hydrogen storage batteries onboard a geostationary spacecraft

V. Kovtun
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Abstract

The paper presents methods of providing power resources for the mission of the Yamal-100 spacecraft from the secondary onboard power supply sources — nickel-hydrogen storage batteries. For the first time in the world practice of using metal-hydrogen electrochemical batteries installed in a common gas manifold a ~10-years operational life in orbit has been achieved for batteries operated onboard a geostationary satellite. A decline in power capacity of storage batteries could result in early termination of the spacecraft mission. Therefore, the energy resource of the storage battery was maintained through proactive management consisting of prediction and active control. The methods that were developed for continuous observation in the form of monitoring and diagnostics of the storage batteries status including estimation of the current discharge energy capacity made it possible to predict further degradation loss under conditions of insufficient power for the storage batteries cooling equipment. The active control consisted in using methods aimed at providing optimal operating conditions, fending off a potential development of an anomalous thermal situation within the electrochemical reaction zone, and regenerating the energy capacity. The control furthermore used the synergy effect produced by secondary energy interrelationships between onboard systems. This made it possible to meet the batteries operational life requirements under exposure to an unfavorable external factor in the form of an increasing heat impact on the batteries temperature control equipment. The increase in thermal load was caused by re-reflection of a portion of the luminous flux from structural elements of the spacecraft and an increase in solar absorption factor (aging) of thermal control coatings. Key words: spacecraft, control process, nickel-hydrogen battery, provision of resources, energy capacity, proactive control, synergy.
地球同步航天器上镍氢蓄电池功率容量的认知协同观测和主动控制程序
介绍了利用星载二次电源——镍氢蓄电池为亚马尔-100飞船任务提供动力资源的方法。在世界上首次将金属-氢电化学电池安装在普通气体歧管中,在地球同步卫星上运行的电池在轨道上实现了约10年的运行寿命。蓄电池电量的下降可能导致航天器任务的提前终止。因此,通过预测和主动控制的主动管理来维持蓄电池的能量资源。提出了以蓄电池状态监测和诊断为形式的连续观测方法,包括对当前放电能量容量的估计,从而可以预测蓄电池冷却设备在功率不足情况下的进一步退化损失。主动控制包括使用旨在提供最佳操作条件的方法,防止电化学反应区内异常热情况的潜在发展,并再生能量容量。该控制进一步利用了机载系统间次级能量相互关系产生的协同效应。这使得在暴露于不利的外部因素(如对电池温度控制设备的热影响增加)的情况下,满足电池的使用寿命要求成为可能。热负荷的增加是由于航天器结构元件部分光通量的再反射和热控制涂层太阳吸收系数(老化)的增加造成的。关键词:航天器,控制过程,镍氢电池,资源供给,能量容量,主动控制,协同。
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