Clean Energy From Municipal Solid Waste (MSW)

R. M. Galante, J. Vargas, W. Balmant, J. Ordonez, A. Mariano
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引用次数: 1

Abstract

The global energy demand has increased at a very large rate, and in parallel, the Municipal Solid Waste (MSW) has also increased, both posing enormous technological challenges to world sustainable growth. Therefore, in order to contribute with concrete alternatives to face such quest for sustainability, this work presents an analysis of an integrated power plant fired by municipal solid waste that uses a biological filter for the combustion emissions fixation. The facility located in the Sustainable Energy Research & Development Center (NPDEAS) at Federal University of Parana is taken as a case study to analyze the process of technical and economic viability. For that, an exergoeconomic optimization model of the waste-to-energy power plant that generates electricity and produces microalgae biomass is utilized. An incineration furnace, which has a 50 kg/h capacity, heats the flue gas above 900°C and provides energy for a 15 kW water-vapor Rankine cycle. A set of heat exchangers preheats the intake air for combustion and provides warm utility water to other processes in the plant, which assures that the CO2 rich flue gas can be airlifted to the microalgae cultivation photobioreactors (PBR) at a low temperature, using a 9 m high mass transfer emissions fixation column. Five 12 m3 tubular photobioreactors are capable of supplying up to 30,000 kg/year of microalgae biomass with southern Brazil solar conditions of 1732 kWh/m2 per year. The results show that considering the incineration services, the integrated power plant could have a payback period as short as 1.35 years. In conclusion, the system provides a viable way to obtain clean energy by thermally treating MSW, together with microalgae biomass production that could be transformed in a large variety of valuable bioproducts (e.g., nutraceuticals, pharmaceuticals, animal feed, and food supplements).
从城市固体废物中获取清洁能源
全球能源需求以非常快的速度增长,与此同时,城市固体废物(MSW)也在增加,两者都对世界可持续增长提出了巨大的技术挑战。因此,为了提供具体的替代方案来应对这种对可持续性的追求,这项工作对一个由城市固体废物燃烧的综合发电厂进行了分析,该发电厂使用生物过滤器来固定燃烧排放。该设施位于巴拉那联邦大学可持续能源研究与发展中心(NPDEAS),作为一个案例研究来分析技术和经济可行性的过程。为此,利用了一个既发电又生产微藻生物质的垃圾焚烧发电厂的努力经济优化模型。焚烧炉的容量为50公斤/小时,将烟气加热到900°C以上,并为15千瓦的水蒸气朗肯循环提供能量。一组热交换器对进气进行预热以供燃烧,并为工厂的其他工艺提供温暖的公用事业水,这确保了富含二氧化碳的烟气可以在低温下空运到微藻培养光生物反应器(PBR),使用9米高的传质排放固定柱。5个12立方米的管状光生物反应器能够在巴西南部每年1732千瓦时/平方米的太阳能条件下提供高达30,000公斤/年的微藻生物质。结果表明,考虑焚烧服务,综合电厂的投资回收期可短至1.35年。总之,该系统提供了一种通过热处理城市生活垃圾获得清洁能源的可行方法,同时微藻生物质生产可以转化为各种有价值的生物产品(例如营养药品、药品、动物饲料和食品补充剂)。
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