集成太阳能联合循环(ISCC)电厂的系统架构:以摩洛哥Ain Beni Mathar电厂为例

T. Aljohani
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引用次数: 1

摘要

气候变化是当今世界面临的最严重威胁之一。能源供应方面是全球温室气体排放的头号贡献者,占总排放量的近35%。针对这些事实,已经采取了一些行动,逐步淘汰依靠化石燃料(主要是煤和石油)产生蒸汽来驱动发电机的传统发电厂发电。在当今众多替代方案中,集成太阳能联合循环(ISCC)发电厂已成为最有效的发电技术之一,同时对环境清洁,经济可行。ISCC方案的基本概念取决于两个发电系统的集成;利用太阳辐射发电的太阳能部分和利用化石燃料中最清洁的天然气的燃气联合循环部分。这项技术被认为具有低碳排放和高运行效率。这是由于热回收蒸汽发生器(HRSG)系统的存在,该系统将工厂的整体发电效率提高到近50%。第一座ISCC电站于2010年夏天在摩洛哥落成,被称为Ain Beni Mathar (ABM)电站。本工作的目的是应用系统架构方法,以便更好地理解和分析ISCC技术的性能和操作概念。本文将以世界上第一个国际空间站为模型
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The System Architecture of the Integrated Solar Combined Cycle (ISCC)Power Plant: The Case of Ain Beni Mathar Morocco
Climate change is one of the most serious threats our world faces today. The energy-supply side is the number one contributor to global greenhouse gas emissions, and responsible for almost 35% of the total emissions. In response to such facts, there have been actions to phase-out from generating electrical energy from conventional power plants that depend upon fossil fuels (mainly coal and oil) which produces steam to run the electrical generators. Among so many present-day alternatives, the Integrated Solar Combined Cycle (ISCC) power plant has emerged as one of the most efficient technologies for generating electricity, while being environmentally clean and economically viable. The basic concept of the ISCC scheme depends upon the integration of two power generation systems; the solar section that generates power by utilizing solar irradiation, and the gas-fired combined cycle section that depends upon natural gas, the cleanest among fossil fuel. This technology is credited with having low carbon emissions as well as high operational efficiency. This is due to the presence of the Heat Recovery Steam Generator (HRSG) system, which increases the overall generation efficiency in the plant to almost 50%. The first ISCC power station was inaugurated in the summer of 2010 in Morocco, known as the Ain Beni Mathar (ABM) power plant. The goal of this work is to apply the system architectural methodologies in order to better understand and analyze the performance and concept of operation of ISCC technology. We will use the world’s first ISCC station as a model in this paper
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