首页> 外文会议>First International Conference on Fuel Cell Science, Engineering and Technology Apr 21-23, 2003 Rochester, New York >GASIFICATION AND FUEL CELL INTEGRATION WITH BOTTOMING TURBINE CYCLE: PERFORMANCES OF A HYBRID PLANT FOR ELECTRICITY PRODUCTION
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GASIFICATION AND FUEL CELL INTEGRATION WITH BOTTOMING TURBINE CYCLE: PERFORMANCES OF A HYBRID PLANT FOR ELECTRICITY PRODUCTION

机译:底部涡轮的气化和燃料电池集成:发电用混合动力装置的性能

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The increasing need of energy resources along with the growing environmental interest promote the creation of new concepts in the field of energy production and management strategies. The development of high temperature fuel cells, suitable for stationary energy production, is one of the most promising aspects, able to bring a significant change in the power generation scenario. One of the most important features for fuel cells is the potential coupling with advanced gasification systems, thus enabling the possibility of energy recovery from waste, RDF (Refuse Derived Fuel) and biomass. The gasification process transfers the energetic value of the original solid fuel to a gaseous product rich in hydrogen, carbon monoxide and dioxide, and other compounds. A post-gasification treatment removes tars, particulates, impurities and makes the gas suitable for power production in a fuel cell unit. In this work an example of an innovative plant for biomass utilization has been considered. The plant includes a gasification section and a Molten Carbonate Fuel Cell unit, coupled with a hot gas cleanup system. For gasification technology, a recent typology was considered involving an indirect heating system such as the Battelle process. Gaseous streams conveyed to the cell after the conditioning processes were considered. In order to achieve higher efficiencies, a bottoming cycle has been added. It comprises a turbine power plant integrated with the gasification and fuel cell lay-out.In the turbine cycle air is compressed in the operating pressure and internally heated by the waste heat of the fuel cell and of the gasification process. The expanded air is then used in the combustion reactor of the gasification system. The proposed plant allows high electric efficiency and high flexibility in choosing for air compression ratio and unit size; sensitivity analyses were performed.
机译:能源资源需求的增长以及对环境的日益关注,促进了能源生产和管理策略领域中新概念的产生。适于固定能源生产的高温燃料电池的开发是最有前途的方面之一,能够在发电领域带来重大变化。燃料电池最重要的特征之一是与先进的气化系统的潜在结合,从而使从废物,RDF(垃圾衍生燃料)和生物质中回收能量成为可能。气化过程将原始固体燃料的能量值转移到富含氢,一氧化碳,二氧化碳和其他化合物的气态产物中。后气化处理去除了焦油,微粒,杂质,并使该气体适合于在燃料电池单元中发电。在这项工作中,已经考虑了生物质利用创新工厂的例子。该工厂包括一个气化段和一个熔融碳酸盐燃料电池单元,以及一个热气净化系统。对于气化技术,最近的类型被认为涉及间接加热系统,例如Battelle工艺。考虑了在调节过程之后输送到电池的气流。为了达到更高的效率,增加了一个触底循环。它包括一个集成了气化和燃料电池布局的涡轮机发电厂。在涡轮机循环中,空气在工作压力下被压缩,并被燃料电池和气化过程的废热内部加热。然后将膨胀的空气用于气化系统的燃烧反应器中。拟建的工厂在选择空气压缩比和单位尺寸时具有很高的电效率和灵活性。进行敏感性分析。

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