Nature-Inspired Strategies for Sustainable Degradation of Synthetic Plastics

IF 8.5 Q1 CHEMISTRY, MULTIDISCIPLINARY JACS Au Pub Date : 2024-08-27 DOI:10.1021/jacsau.4c0038810.1021/jacsau.4c00388
Sreeahila Retnadhas, Daniel C. Ducat* and Eric L. Hegg*, 
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Abstract

Synthetic plastics have become integral to our daily lives, yet their escalating production, limited biodegradability, and inadequate waste management contribute to environmental contamination. Biological plastic degradation is one promising strategy to address this pollution. The inherent chemical and physical properties of synthetic plastics, however, pose challenges for microbial enzymes, hindering the effective degradation and the development of a sustainable biological recycling process. This Perspective explores alternative, nature-inspired strategies designed to overcome some key limitations in currently available plastic-degrading enzymes. Nature’s refined degradation pathways for natural polymers, such as cellulose, present a compelling framework for the development of efficient technologies for enzymatic plastic degradation. By drawing insights from nature, we propose a general strategy of employing substrate binding domains to improve targeting and multienzyme scaffolds to overcome enzymatic efficiency limitations. As one potential application, we outline a multienzyme pathway to upcycle polyethylene into alkenes. Employing nature-inspired strategies can present a path toward sustainable solution to the environmental impact of synthetic plastics.

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自然启发下的合成塑料可持续降解战略
合成塑料已成为我们日常生活中不可或缺的一部分,但其产量的不断攀升、有限的生物降解性以及不完善的废物管理造成了环境污染。生物降解塑料是解决这一污染问题的一种可行策略。然而,合成塑料固有的化学和物理特性给微生物酶带来了挑战,阻碍了有效降解和可持续生物回收过程的发展。本视角探讨了受大自然启发而设计的替代策略,以克服现有塑料降解酶的一些关键局限性。大自然对纤维素等天然聚合物的精炼降解途径为开发高效的酶解塑料技术提供了一个令人信服的框架。通过从大自然中汲取灵感,我们提出了利用底物结合域提高靶向性和多酶支架克服酶效率限制的一般策略。作为一种潜在的应用,我们概述了将聚乙烯升级为烯的多酶途径。采用受自然启发的策略可以为可持续地解决合成塑料对环境的影响提供一条途径。
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审稿时长
10 weeks
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