Advanced space technology for 21st century energy systems: solar power from space

L. Summerer, F. Ongaro
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引用次数: 11

Abstract

Terrestrial solar power is one of the fastest growing energy sectors with high growth rates sustained over more than a decade (especially in Europe) and very promising forecasts. For 30 years, the idea of a large solar power plant in Earth orbit, transmitting energy to Earth-bound receiver sites, has enjoyed periodic attention from energy and space entities. All studies concluded the principal technical feasibility of the concepts and gradually improved their power to mass ratio. No substantial development efforts were undertaken, however, since, with current technology, space generated electricity costs would still be too high, upfront costs prohibitive and the launcher sector not mature enough to reduce /spl euro//kg to orbit costs by the required order of magnitude. In the past, space concepts were mainly compared to traditional energy systems. Based on this background, the Advanced Concepts Team (ACT) at the European Space Agency started a three-phased programme in 2003. The first phase of the programme, the validation phase, focused on a comparison of a space solar power plant with comparable terrestrial solutions, on the one hand, and the assessment of the potential of SPS for space exploration and space application, on the other. Space concepts were compared to terrestrial solutions based on equally advanced technology and equal economic conditions for the timeframe 2020/30 in terms of energy payback times, final /spl euro//kWh generation costs, adaptability to different energy scenarios, reliability and risk.
21世纪能源系统的先进空间技术:来自太空的太阳能
地面太阳能发电是增长最快的能源部门之一,其高增长率持续了十多年(特别是在欧洲),并且前景非常乐观。30年来,在地球轨道上建立一个大型太阳能发电厂,将能量传输到地球接收站的想法,一直受到能源和空间实体的周期性关注。所有的研究都总结了这些概念的主要技术可行性,并逐步提高了它们的功率质量比。但是,没有作出实质性的发展努力,因为以目前的技术,空间发电的费用仍然太高,前期费用令人望而生畏,而且发射装置部门还不够成熟,无法按所需的数量级减少/ sp1欧元//公斤进入轨道的费用。过去,人们主要将空间概念与传统的能源系统进行比较。基于这一背景,欧洲航天局的先进概念小组(ACT)于2003年启动了一个分三个阶段的计划。该方案的第一阶段,即验证阶段,侧重于一方面将空间太阳能发电厂与可比较的地面解决办法进行比较,另一方面评估SPS在空间探索和空间应用方面的潜力。在能源回报时间、最终/spl欧元//千瓦时发电成本、对不同能源情景的适应性、可靠性和风险方面,将空间概念与基于同等先进技术和同等经济条件的地面解决方案进行了比较。
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