Degradable Vinyl-Based Polymers by Radical Ring-Opening Polymerization: A User Guide

IF 6.7 Q1 POLYMER SCIENCE
ACS polymers Au Pub Date : 2026-06-10 Epub Date: 2026-04-11 DOI:10.1021/acspolymersau.5c00191
Bastien Luzel, Sophia Kouider, Franck D’Agosto, Didier Gigmes, Muriel Lansalot, Christopher M. Bates, Elise Ackerman, Steven Labalme, Jeremiah A. Johnson, Jia Niu, Julien Nicolas, Yohann Guillaneuf, Catherine Lefay
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引用次数: 0

Abstract

Low weight, low price, and excellent long-term stability are the main advantages of vinyl-based polymers. Such polymers are obtained by chain-growth processes leading to all-carbon backbones, which are non(bio)degradable and nonchemically recyclable. Unfortunately, this chemical stability manifests as postuse persistence; coupled with poor waste management practices, polymers including vinyl derivatives pose major environmental problems today. Given that it is very difficult and costly to design entirely new materials that have both desired properties (mechanical, thermal, solvent resistance, etc.) and recyclability and/or biodegradability at the end of their life cycle, it seems worthwhile to transform already known materials into (bio)degradable/chemically recyclable equivalents. One approach is based on the introduction of cleavable bonds into the polymer backbone, so that degradation (by hydrolysis, for example) produces oligomers which can then be further recycled and/or bioassimilated by micro-organisms. An effective method for incorporating weak bonds randomly into the C–C backbone of a vinyl polymer is the copolymerization of vinyl monomers with cyclic monomers by radical ring-opening polymerization (rROP). This method combines the advantages of ring-opening and radical polymerization, i.e., the production of polymers with heteroatoms and/or functional groups in the main chain, with the robustness, ease of use, and mild polymerization conditions of a radical process. The aim of this tutorial review is to provide polymer chemists with guidelines to use rROP to prepare vinyl-based materials with predictable degradation. This review thus presents the rROP principle, the main families of cyclic monomers copolymerizable with vinyl monomers, and the main applications of the resulting (bio)degradable/chemically recyclable materials (polymers for packaging, latexes and degradable surfaces, 3D printing, biomaterials and water-soluble polymers).

Abstract Image

可降解的乙烯基聚合物自由基开环聚合:用户指南。
重量轻、价格低、长期稳定性好是乙烯基聚合物的主要优点。这种聚合物是通过链式生长过程获得的,导致全碳骨架,这是不可(生物)降解和不可化学回收的。不幸的是,这种化学稳定性表现为使用后的持久性;再加上废物管理不善,包括乙烯基衍生物在内的聚合物今天构成了重大的环境问题。考虑到设计全新的材料既要具有所需的性能(机械、热、耐溶剂等),又要在其生命周期结束时具有可回收性和/或可生物降解性,这是非常困难和昂贵的,因此将已知材料转化为(生物)可降解/化学可回收的等效材料似乎是值得的。一种方法是基于在聚合物骨架中引入可切割的键,以便降解(例如通过水解)产生低聚物,然后这些低聚物可以进一步回收和/或被微生物生物同化。通过自由基开环聚合(rROP)将乙烯基单体与环状单体共聚,是将弱键随机纳入乙烯基聚合物C-C主链的有效方法。这种方法结合了开环聚合和自由基聚合的优点,即在主链上生产杂原子和/或官能团的聚合物,以及自由基过程的鲁棒性,易用性和温和的聚合条件。本教程综述的目的是为聚合物化学家提供使用rROP制备具有可预测降解的乙烯基材料的指南。因此,本文综述了rROP原理,可与乙烯基单体共聚的环单体的主要家族,以及由此产生的(生物)可降解/化学可回收材料(包装聚合物、乳胶和可降解表面聚合物、3D打印、生物材料和水溶性聚合物)的主要应用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
CiteScore
2.50
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0.00%
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