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Water-energy nexus and greenhouse gas-sulfur oxides embodied emissions of biomass supply and production system: A large scale analysis using combined life cycle and dynamic simulation approach

机译:水能Nexus和温室气体氧化物体现了生物质供应和生产系统的排放:使用组合生命周期和动态仿真方法进行大规模分析

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The achievement of low or zero greenhouse gas and particulate matter emissions such as sulfur oxides, optimized water-energy nexus, and a well-protected environment are challenges that have become increasingly significant for the biomass industry. There is a need to conduct evaluation and analyses of the greenhouse gas and particulate emissions, water use and energy consumption of biomass process and delivery, from "cradle to gate". Therefore, to fill this noted gap in the literature, this study aims to develop a combined life cycle and dynamic simulation model to examine water-energy nexus in the biomass industry, particularly under uncertainties, as well as estimation of greenhouse gas and particulate matter emissions of the biomass supply chain by 2050. The dynamic modelling of material, energy, and water flows was used to perform those tasks. An in-depth analysis of environmental issues during the production, processing, conversion and delivery of empty fruit bunches biomass supply and production system is conducted. The model was tested and implemented through a case study of three main biomass suppliers in Malaysia. Comparison of environmental performance of the production stages of 31 products through pre-processed, intermediate, and final productions in the biomass supply chain shows that bio-compost, activated-carbon, and cellulose are the highest water users and energy consumers as well as the highest emitters of greenhouse gas and sulfur oxides for all the three suppliers. Sensitivity analysis was also conducted for these critical products based on recent governmental land and demand policies. The main finding of this paper indicates a need for a well-planned management of water-energy nexus in pre-processed production compared to intermediate and final production of biomass supply chain. This finding provides valuable insights to the government agencies and stakeholders to pursue sustainable bioenergy development strategies.
机译:为硫氧化物,优化的水能Nexus等低温或零温室气体和颗粒物质排放的实现是对生物质行业越来越重要的挑战。需要对生物量工艺和递送的温室气体和微粒排放,用水和能耗进行评估和分析,从“摇篮到门”。因此,为了填补文献中的这一指出的差距,本研究旨在开发一个组合的生命周期和动态模拟模型,以检查生物量行业中的水能Nexus,特别是在不确定因素下,以及温室气体和颗粒物质排放的估算2050年的生物质供应链。使用材料,能量和水流的动态建模来执行这些任务。对环境问题的深入分析,在生产,加工,转换和输送生物量供应和生产系统的生产,加工,转换和输送过程中。通过对马来西亚三种主要的生物量供应商进行测试和实施该模型。通过预处理,中间体和最终制作的31种产品的生产阶段环境性能的比较显示生物堆肥,活性炭和纤维素是最高的水用户和能源消费者以及所有三家供应商的温室气体和硫氧化物的最高发射器。根据最近的政府土地和需求政策,还对这些关键产品进行了敏感性分析。本文的主要发现表明,与生物量供应链的中间和最终生产相比,预加工生产中的水能Nexus提供了精心计划的水能管理。这一发现为政府机构和利益攸关方提供了有价值的见解,以追求可持续的生物能源发展战略。

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