The Meteosat Second Generation (MSG) power system

J. Haines, D. Levins, A. Robben, A. Sepers
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引用次数: 1

Abstract

Under the direction of the European Meteorological Satellite Organisation (EUMETSAT) and the European Space Agency (ESA), space industries within Europe are in the process of developing a new series of larger and more performant geostationary weather satellites. The initial three spacecraft within this new series, which are known by the name of Meteosat Second Generation (MSG), are due to be progressively launched as from the year 2000 onwards. The major objective of this mission is the continuation of the European weather watch and space borne atmospheric sensing services provided by the present series of Meteosat spacecraft. To satisfy this mission requirement, the payload compliment to be supported by MSG will be consist of a comprehensive earth viewing instrument capable of operating in both the infra-red and visible spectrum, an Earth radiation measurement system and a search and rescue facility. In furnishing the power needs for these payloads, the power generating element on the spin stabilised MSG spacecraft consists of a body mounted solar array, capable of providing 628 watts of electrical power at the end of seven years of geosynchronous orbital lifetime. The energy storage elements for the spacecraft consists of two, 29 ampere-hour batteries, whilst centralised power management is achieved by the power control unit, which satisfies the payload and battery re-charge demands by controlling the available solar array power. Power distribution for the spacecraft electrical loads and heaters is achieved by the power distribution unit and for the pyrotechnic devices by the pyrotechnic release unit.
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气象卫星第二代(MSG)动力系统
在欧洲气象卫星组织(EUMETSAT)和欧洲航天局(ESA)的指导下,欧洲的航天工业正在开发一系列更大、性能更好的地球同步气象卫星。这个新系列的最初三颗卫星被称为气象卫星第二代(MSG),将从2000年开始逐步发射。这一任务的主要目标是继续现有气象卫星航天器系列提供的欧洲天气监测和空间大气传感服务。为了满足这一任务要求,MSG将支持的有效载荷将包括一个能够在红外和可见光谱中工作的综合地球观测仪器、一个地球辐射测量系统和一个搜索和救援设施。为了满足这些有效载荷的电力需求,自旋稳定MSG航天器上的发电元件由一个安装在机身上的太阳能阵列组成,在7年的地球同步轨道寿命结束时,能够提供628瓦的电力。航天器的能量存储元件由两个29安培小时的电池组成,同时集中电源管理由电源控制单元实现,它通过控制可用的太阳能阵列功率满足有效载荷和电池再充电需求。航天器电负载和加热器的功率分配由功率分配单元实现,烟火装置的功率分配由烟火释放单元实现。
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