以关键材料为重点的1kW PEMFC系统生命周期评估

R. Stropnik, M. Sekavčnik, Andrej Lorrič, M. Mori
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引用次数: 4

摘要

燃料电池和氢(FCH)技术有望促进能源和运输部门的脱碳。阻碍FCH商业化的一件事是缺乏回收和拆除策略,因为没有可用的关键材料清单。欧盟资助的HyTechCycling项目中考虑的FCH技术之一是聚合物电解质膜燃料电池(PEMFC),这是本文的重点。欧盟HyTechCycling项目的目标之一是对PEMFC技术进行生命周期评估(LCA)。本文的主要重点是收集和正确设置PEMFC系统LCA研究所需的所有数据。首先,将PEMFC分解为核心组件,以确定构成PEMFC组件的所有材料。在GaBi Thinkstep软件中对PEMFC进行了LCA数值模拟。本文第一部分对常见的PEMFC材料进行了分类。此外,利用该材料清单进行了1kW PEMFC系统的LCA研究。该研究的范围是“从摇篮到门”,有四种不同的氢气生产方案,运行时间为20,000小时。环境影响评估采用了CML2001生命周期影响评估(LCIA)方法。1kW PEMFC系统的LCA结果表明,在制造阶段,堆对总环境影响的贡献率为60-90%,防喷器组件的影响范围为10-20%。在运行阶段,水电电解制氢和天然气重整制氢是对环境影响最小的方案。铂族金属(PGM's)是1kw PEMFC系统制造阶段对环境影响最大的因素,其中铂族金属最为突出。因此,假设铂的回收率为95%,平均可减少61%的环境影响。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Life Cycle Assessment of 1kW PEMFC system with the focus on critical materials
Fuel cell and hydrogen (FCH) technologies are expected to add to decarbonisation of energy and transport sector. One thing that prevents FCH commercialization is lack of recycling and dismantling strategies, due to not available lists of critical materials. One of the considered FCH technologies within the EU funded HyTechCycling project is polymer electrolyte membrane fuel cell (PEMFC), which is the focus of this paper. One of the goals of EU project HyTechCycling is to carry out a Life Cycle Assessment (LCA) of PEMFC technology. Main focus of this paper is to gather and properly set all the data needed for LCA study of the PEMFC system. First the PEMFC was broken down to core components to identify all materials constituting the PEMFC components. For PEMFC the LCA numerical model was done in GaBi Thinkstep software. In first part of the paper the list of common PEMFC materials were identified. Furthermore with this list of materials a LCA study for 1kW PEMFC system was done. The scope of the study was “cradle to gate” with four different scenarios of hydrogen production and 20,000 h of operation. For environmental impact assessment the CML2001 life cycle impact assessment (LCIA) methodology was used. LCA results of 1kW PEMFC system shows that in manufacturing phase the stack contributes 60-90% in total environmental impacts and the BoP components are in range of 10-20%. In operation phase the hydrogen production with electrolysis using hydroelectricity and natural gas reforming are scenarios with lowest environmental impacts. The platinum group metals (PGM's), among which Pt is standing out the most, are the biggest contributors in the total environmental impact in the manufacturing phase of 1 kW PEMFC system. Therefore, on average 61% reduction in environmental impacts can be achieved with an assumption of 95% recycling of Pt.
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