第13章。金属废料转化为新工艺催化剂:使用选定的历史案例进行综合分析的生命周期和环境效益

Sophie A. Archer, A. Murray, J. Omajali, M. Paterson-Beedle, B. Sharma, J. Wood, L. Macaskie
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引用次数: 1

摘要

新技术要想成为市场竞争者,就必须比竞争对手的成本低得多,或者达到用现有方法难以达到的效果。经典的生命周期分析(LCA)侧重于突出的生态影响,但忽略了关键的经济方面,也没有分配可量化的效益。本章考虑了使用从井到门(也称为从摇篮到门)LCA的石油开采和燃料生产所带来的环境保护效益、减少二氧化碳排放和环境影响,以及涉及减少垃圾填埋门费和碳的社会成本的经济效益。评估的案例历史包括从废物中提取生物精炼催化剂,用于更清洁的提取、升级和处理重质化石和热解生物油,并与商业同类产品进行比较。使用商业催化剂和生物催化剂对每个病例的历史材料进行分析,并根据油比(%eq)评估替代方案。g: g).废木材和藻类的热解生物油在两种催化剂的作用下均可成功升级。它们产生碳中性燃料,因为在光合作用的生物量生长过程中碳被固存,支持催化剂的细菌成分被吸收到燃料中。
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Chapter 13. Metallic Wastes into New Process Catalysts: Life Cycle and Environmental Benefits within Integrated Analyses Using Selected Case Histories
For new technologies to become market competitors, they must operate substantially cheaper than their competitors or achieve outcomes that are difficult by current methods. Classical life cycle analysis (LCA) focuses on salient ecological impacts but bypasses key economic aspects and does not assign quantifiable benefits. This chapter factors in the benefits of environmental protection, reduced CO2 emissions, and the environmental impacts of oil extraction and fuel production using a well-to-gate (also known as cradle-to-gate) LCA, as well as the economics involving the mitigation of landfill gate fees for waste resources and social cost of carbon. The case histories evaluated involve catalysts bio-refined from wastes for application in cleaner extraction, upgrading, and processing of heavy fossil and pyrolysis bio-oils and comparisons to their commercial counterparts. Each case history material was analysed with a commercial catalyst and a bio-catalyst assessed as an alternative based on oil ratios (%eq. of g : g). Pyrolysis bio-oils from waste wood and algal sources were found to be upgradable successfully using both catalysts. They produce carbon-neutral fuels because of carbon sequestration during photosynthetic biomass growth, and the bacterial components supporting the catalyst become assimilated into the fuel.
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