热解
生物炼制
生物量(生态学)
废物管理
热解油
环境科学
比例(比率)
过程(计算)
工艺工程
生物燃料
工程类
计算机科学
量子力学
海洋学
操作系统
物理
地质学
作者
Cody J. Wrasman,A. Nolan Wilson,Ofei D. Mante,Kristiina Iisa,Abhijit Dutta,Michael Talmadge,David C. Dayton,Sundararajan Uppili,Michael J. Watson,Xiaochun Xu,Michael B. Griffin,Calvin Mukarakate,Joshua A. Schaidle,Mark R. Nimlos
出处
期刊:Nature Catalysis
[Springer Nature]
日期:2023-07-24
卷期号:6 (7): 563-573
被引量:43
标识
DOI:10.1038/s41929-023-00985-6
摘要
Catalytic pyrolysis, a process that combines pyrolysis and vapour-phase catalytic upgrading, is a versatile technology platform capable of direct liquefaction of biomass and waste plastic into intermediates that can enable the decarbonized production of chemicals and/or transportation fuels. Recently, catalytic pyrolysis has attracted substantial research and commercialization attention, with over 15,000 journal articles and patents published in the past decade alone. In this Perspective, we chart a path towards commercial-scale catalytic pyrolysis of waste plastic and biomass by identifying key short-term and long-term technological barriers. Within the proposed development roadmap addressing these barriers, catalytic pyrolysis can move from the demonstration scale to integrated biorefinery networks producing fuels and plastics precursors at a scale of between 0.1 and 1 billion tonnes of carbon per year. Catalytic pyrolysis is a promising process for the valorization of biomass and plastic waste, although several aspects related to its practical utilization remain unexplored. This Perspective revisits the salient features of catalytic pyrolysis, identifying a roadmap to advance the application of this technology at commercial scale.
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