首页> 外文会议>Conference on new and renewable technologies for sustainable development >INTEGRATED BIOMASS GASIFICATION - GAS TURBINE - FUEL CELL SYSTEMS FOR SMALL-SCALE, DISTRIBUTED GENERATION OF ELECTRICITY AND HEAT
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INTEGRATED BIOMASS GASIFICATION - GAS TURBINE - FUEL CELL SYSTEMS FOR SMALL-SCALE, DISTRIBUTED GENERATION OF ELECTRICITY AND HEAT

机译:集成生物质气化 - 燃气轮机 - 用于小型,分布发电的电气和热量的燃料电池系统

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The use of a biomass gasifier that drives a gas turbine integrated with a fuel cell, is a potentially very attractive way to generate electricity and heat with a high efficiency and very low emissions. The application of catalytic combustion systems can decrease the emissions even further. A number of technical and non-technical developments during the last 5 years have significantly enhanced the opportunities for small-scale, distributed power generation, especially for systems based on biomass fuels. These developments are: the liberalisation of the energy market, the growing needs for electricity and heat in developing countries, the increasing demand for 'green' or 'sustainable' electricity, the near-commercial availability of maintenance-low micro-turbine generator packages and developments in the field of high temperature fuel cells. Preliminary system studies have shown that the integration of the different subsystems needs careful evaluation in order to realise the expected high efficiencies. To enable the assessment of the technical feasibility of potentially attractive system designs, adequate, experimentally validated knowledge with regard to biomass gasification, pressurised combustion of the fuel gas and the gas cleaning steps is required. Possible system designs based on a combination of electrochemical and thermochemical fuel conversion steps are examined and analysed with regard to efficiency, emission and costs. A system design for application on commercial scale based on present day technology will be considered. At Delft University of Technology, a biomass gasifier has been set up and a conceptual design for a pilot system, to be tested in the slipstream of the Delft 1.5 MWth process development unit, will be presented. The process development unit is described in more detail in [Hoppesteyn, et. al., 1998] and [de Jong et. ah, 1998]. In this study, it has been attempted to integrate an SOFC with an existing micro gas turbine that has not especially been adjusted for the integration with the SOFC.
机译:使用驱动与燃料电池集成的燃气轮机的生物质气化器是一种具有高效率和极低排放的电力和热量的潜在非常有吸引力的方式。催化燃烧系统的应用可以进一步降低排放。过去5年的许多技术和非技术开发将大大提高了小规模分布式发电的机会,特别是对于基于生物质燃料的系统。这些进展是:能源市场的自由化,不断增长的需求的电力和热能在发展中国家,“绿色”或“可持续”电力需求的增加,维修低微型涡轮发电机包的接近商业化的可用性和高温燃料电池领域的发展。初步系统研究表明,不同子系统的整合需要仔细评估,以实现预期的高效率。为了能够评估潜在有吸引力的系统设计的技术可行性,需要对生物质气化,燃料气体的加压燃烧以及气体清洁步骤进行足够的实验验证的知识。基于电化学和热化学燃料转换步骤的组合进行了可能的系统设计,并在效率,排放和成本方面进行分析。将考虑基于当前技术的商业规模应用的系统设计。在代尔夫特技术大学,已经建立了一种生物质气化器,并在Delft 1.5 Mwth工艺开发单元的滑翔流中进行了概念设计,将在Delft 1.5 Mwth工艺开发单元的滑翔中进行测试。在[Hoppesteyn,ET中,更详细地描述了过程开发单元。 al。,1998]和[de Jong et。啊,1998。在本研究中,已经尝试将SOFC与现有的微燃气涡轮机集成,其没有特别调节与SOFC的整合。

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