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Life cycle assessment of biomass-to-energy systems in Ireland modelled with biomass supply chain optimisation based on greenhouse gas emission reduction

机译:基于温室气体减排的生物质供应链优化建模的爱尔兰生物质能源系统生命周期评估

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摘要

The energy sector is the major contributor to GHG (greenhouse gas emissions) in Ireland. Under EU Renewable energy targets, Ireland must achieve contributions of 40%, 12% and 10% from renewables to electricity, heat and transport respectively by 2020, in addition to a 20% reduction in GHG emissions. Life cycle assessment methodology was used to carry out a comprehensive, holistic evaluation of biomass-to-energy systems in 2020 based on indigenous biomass supply chains optimised to reduce production and transportation GHG emissions. Impact categories assessed include; global warming, acidification, eutrophication potentials, and energy demand. Two biomass energy conversion technologies are considered; co-firing with peat, and biomass CHP (combined heat and power) systems. Biomass is allocated to each plant according to a supply optimisation model which ensures minimal GHG emissions. The study shows that while CHP systems produce lower environmental impacts than co-firing systems in isolation, determining overall environmental impacts requires analysis of the reference energy systems which are displaced. In addition, if the aims of these systems are to increase renewable energy penetration in line with the renewable electricity and renewable heat targets, the optimal scenario may not be the one which achieves the greatest environmental impact reductions.
机译:能源部门是爱尔兰温室气体(GHG)的主要贡献者。根据欧盟可再生能源目标,到2020年,爱尔兰必须实现可再生能源对电力,热力和交通的贡献分别达到40%,12%和10%,此外还要减少20%的温室气体排放。生命周期评估方法被用于在2020年基于为减少生产和运输温室气体排放而优化的本土生物质供应链的基础上,对生物质能源系统进行全面,全面的评估。评估的影响类别包括;全球变暖,酸化,富营养化潜力和能源需求。考虑了两种生物质能转化技术;与泥炭和生物质CHP(热电联产)系统共烧。生物量根据供应优化模型分配给每个工厂,该模型可确保将温室气体排放降至最低。研究表明,尽管热电联产系统产生的环境影响比孤立发电的系统低,但要确定总体环境影响,需要分析被取代的参考能源系统。此外,如果这些系统的目标是根据可再生能源和可再生能源的目标提高可再生能源的渗透率,那么最佳方案可能不是最大程度减少环境影响的方案。

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