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Co-pyrolysis of biomass and waste plastics as a thermochemical conversion technology for high-grade biofuel production: Recent progress and future directions elsewhere worldwide

机译:生物质和废塑料的共热解作为用于高级生物燃料生产的热化学转化技术:全球其他地方的最新进展和未来方向

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摘要

Continuous growth of human population and industrialization has increased the energy demands all over the world and this has resulted in a number of energy related challenges including depletion of fossil fuels, environmental pollution, and shortage of electricity supply. These challenges made it imperative to develop and maximize the abundant renewable energy resources, particularly the biomass via upgrading thermochemical conversion routes such as co-pyrolysis. This review paper presents an overview of previous studies, recent advances, and future directions on co-pyrolysis of biomass and waste plastics for high-grade biofuel production particularly in China and elsewhere worldwide. This paper also discussed the advantages of the co-pyrolysis process, co-pyrolysis product yields, co-pyrolysis mechanisms of biomass with plastics, and synergistic effects between them during co-pyrolysis, as well as the effects of some operating parameters especially the biomass mixing ratio and pyrolysis temperature on co-pyrolysis yields. The result of this critical review showed that co-pyrolysis of biomass with waste plastics is more beneficial than the normal biomass pyrolysis alone, and that it is also a simple, effective, and optional solution to increase the energy security of a nation, achieve effective waste management, and reduce dependency on fossil fuels.
机译:人口的持续增长和工业化增加了全世界的能源需求,这导致了许多与能源有关的挑战,包括化石燃料的枯竭,环境污染和电力供应短缺。这些挑战使得必须通过升级热化学转化途径(例如共热解)来开发和最大化丰富的可再生能源,特别是生物质。这篇综述文章概述了生物质和废塑料共热解用于高级生物燃料生产的先前研究,最新进展以及未来方向,特别是在中国和世界其他地方。本文还讨论了共热解工艺的优点,共热解产物的收率,生物质与塑料的共热解机理以及在共热解过程中它们之间的协同效应,以及某些操作参数(尤其是生物质)的影响。混合比和热解温度对共热解产率的影响。严格审查的结果表明,生物质与废塑料的共热解比单独的常规生物质热解更有益,并且它也是提高一个国家的能源安全,实现有效的简单,有效和可选的解决方案。废物管理,减少对化石燃料的依赖。

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