希腊太阳能集热发电系统的地理空间比较分析

Evangelos Bellos
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引用次数: 0

摘要

太阳能集中发电是应对能源危机和环境问题的重要武器。希腊是一个太阳能潜力巨大的国家,因此是发展重要太阳能集中发电厂的理想候选国。这些工厂具有储热罐易于储能的优势,有利于生产相对稳定的电力生产,对可再生能源系统的进一步发展至关重要。本工作的目的是详细调查希腊不同地区的太阳能聚光技术,以确定在哪些地区太阳能聚光是一个有前景的解决方案。此外,还研究了三种典型的太阳能聚光技术,特别是抛物面槽集热器(PTC)、线性菲涅耳反射器(LFR)和太阳能DISH。通过使用典型气象年(TMY)的每小时天气数据,对希腊13个不同地区进行了调查。计算了太阳势、可用辐射、有用热量、电力生产和火用生产,以及各自的效率指标和平准化电力成本(LCOE)。需要强调的是,本研究的重点是小容量系统,这些系统是分布式可再生能源生产的理想选择。得出的结论是,最有效和经济可行的技术是太阳能DISH,PTC紧随其后,LFR是最后的选择。此外,与希腊北部相比,希腊南部是安装太阳能集中发电厂的更好选择。更具体地说,在爱琴海南部,计算出PTC的比发电量为253.0 kWh/m2,LFR为160.7 kWh/m2和DISH为296.8 kWh/m2;而PTC的LCOE为0.0882欧元/kWh,LFR的LCOE是0.1046欧元/kWh和DISH的LCOE则为0.0843欧元/kWh。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

A geospatial comparative analysis of solar thermal concentrating power systems in Greece

A geospatial comparative analysis of solar thermal concentrating power systems in Greece

Solar concentrating power is an important weapon for facing the energy crisis and environmental issues. Greece is a country with great solar potential and thus it is an ideal candidate for the development of important solar concentrating power plants. These plants present the advantage of easy energy storage with thermal storage tanks, something beneficial for the production of a relatively stable electricity production profile, something critical for the further development of renewable energy systems. The objective of the present work is the detailed investigation of the solar concentrating technologies in different Greek locations in order to define in which locations solar concentrating power is a promising solution. Moreover, three typical solar concentrating technologies are studied and more specifically the parabolic trough collector (PTC), the linear Fresnel reflector (LFR) and the solar DISH. Thirteen different Greek regions are investigated by using hourly weather data from the typical meteorological year (TMY). The solar potential, the available irradiation, the useful heat production, the electricity production and the exergy production, as well as the respective efficiency indexes and the levelized cost of electricity (LCOE), are calculated. It is important to highlight that this study is focused on the systems of small capacity which are ideal for distributed renewable power production. It was concluded that the most efficient and economically feasible technology is the solar DISH, with the PTC to follow and LFR to be the last choice. Moreover, southern Greece is found to be a better choice for the installation of solar-concentrating power plants compared to northern Greece. More specifically, in the Southern Aegean Sea, it was calculated that the specific electricity production is 253.0 kWh/m2 with PTC, 160.7 kWh/m2 with LFR and 296.8 kWh/m2 with DISH, while the LCOE at 0.0882 €/kWh with PTC, 0.1046 €/kWh with LFR and 0.0843 €/kWh with DISH.

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