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Development and Validation of MW Scale PEM Electrolysis for Renewable Energy Storage

机译:可再生能源储存MW规模PEM电解的开发与验证

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With the ever-increasing addition of wind and solar renewable energy to the traditional electric grid, the need for energy storage also grows. A recent study projects the value of energy storage for wind and solar integration worldwide to exceed $30 Billion by 2023 [1]. Hydrogen from electrolysis is a promising technology for renewable energy capture as it has the capability to store massive amounts of energy in a relatively small volume. In addition, electrolysis can also provide ancillary services to the grid such as frequency regulation and load shifting resulting in multiple value streams. The hydrogen produced can alternatively be injected into the natural gas pipeline (thus making that energy carrier more green), in the production of high value chemicals such as ammonia, in upgrading of methanization-produced biogas, or used as a transportation fuel. Europe in particular has been committed to these pathways and making heavy investment in both materials research and system design and development as well as technology demonstration. In Germany, hydrogen is looked upon as a key part of the energy storage solution under "Energiewende," their national sustainable energy transition plan. Hydrogen provides a unique link between the electric and gas grid infrastructures (often referred to as "Power-to-Gas"). Germany is also considered the global leader in biogas energy generation, with 18,244 GWh of generation in 2012 forecasted to grow to 28,265 GWh by 2025 [2]. Water electrolysis has benefits over other hydrogen generation technologies due to the lack of carbon footprint when integrated with a renewable source of energy. Specifically, proton exchange membrane (PEM) electrolysis is a promising technology for hydrogen generation applications because of the lack of corrosive electrolytes, small footprint, and ability to generate at high pressure, requiring only water and an energy source. Several companies have already announced plans to develop megawatt (MW) commercial scale PEM electrolysis units in the 2014-2015 timeframe for these applications. There have also been recent announcements of large scale renewable energy storage project based on electrolysis.
机译:随着向传统电网的不断增加的风和太阳能可再生能源,需要储存的需求也增长。最近的一项研究将全球风力和太阳能集成的能量储存值超过2023年的储存价值超过300亿美元[1]。来自电解的氢是可再生能源捕获的有希望的技术,因为它具有将大量能量存储在相对较小的体积中的能力。此外,电解还可以为网格提供辅助服务,例如频率调节和负载移位,导致多个值流。所生产的氢气可选择地注入天然气管道(因此使能量载体更加绿色),在生产高价值化学品如氨,升级甲烷化的沼气,或用作运输燃料。特别是欧洲一直致力于这些途径,并对材料研究和系统设计和开发以及技术示范进行重大投资。在德国,氢气被视为“Energiewende”下的能量存储解决方案的关键部分,他们的国家可持续能源过渡计划。氢气在电网基础设施(通常称为“电源到气体”)之间提供独特的联系。德国也被认为是沼气能源发电的全球领导者,2012年的18,244亿元的一代人预测到2025年的成长为28,265 GWH [2]。由于与可再生能源源相结合,水电解有其他氢生成技术的益处。具体而言,质子交换膜(PEM)电解是氢收发电应用的有希望的技术,因为缺乏腐蚀性电解质,小足迹和在高压下产生的能力,只需要水和能源。若干公司已经宣布计划在2014 - 2015年时间范围内开发兆瓦(MW)商业规模PEM电解单位。最近还有基于电解的大规模可再生能源存储项目的公告。

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