持续性
生化工程
塑料污染
可再生资源
二氧化碳
可生物降解聚合物
纳米技术
生产(经济)
可再生能源
环境科学
聚合物
材料科学
污染
化学
工程类
生态学
有机化学
电气工程
宏观经济学
经济
生物
作者
Min Kuang,Bingbing Li,Linjiao Zhou,Zichao Huang,Jun Wu,Shaobin Wang,Jianping Yang
标识
DOI:10.1002/ange.202422357
摘要
The escalating emissions of anthropogenic carbon dioxide (CO2) and the pervasive issue of nondegradable plastic pollution underscore dual urgent challenges in pursuit of a sustainable society. Achieving such sustainability in the plastic industry, while effectively addressing these environmental concerns, necessitates the development and implementation of innovative strategies for the synthesis of biodegradable polymers utilizing CO2 as feedstocks. The technologies not only facilitate the mitigation of elevated atmospheric CO2 concentrations but also introduce a renewable carbon resource for polymer manufacturing. While considerable research has been undertaken in CO2 upgrading to various C1‐3 products, the production of biodegradable polymers from CO2 remains a formidable challenge. Here, we delineate the principal methodologies for catalytic CO2 upgrading to biodegradable polymers, encompassing photocatalytic‐biological processes and electrocatalytic‐biological approaches. The emphasis of this perspective is on the optimization of production processes and catalyst efficiency, which are paramount in addressing the imperative challenge of decarbonization in the plastic industry, thereby aligning with global environmental sustainability goals.
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