Bio-based vitrimers: chemistry, performance and applications

IF 5.1
Edoardo Albertini, Sara Dalle Vacche and Alessandra Vitale
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Abstract

Despite being widely used in industrial applications, thermoset polymers arguably present a major challenge to modern society due to the near impossibility of their end-of-life recycling and reprocessing. Furthermore, there are difficulties in finding bio-based alternatives to the fossil-based building blocks used for their production that can deliver comparable mechanical performance. These limitations have driven growing interest in vitrimers, associative covalent adaptable networks capable of being recycled, welded and reprocessed without changes in cross-linking density through dynamic covalent exchange. Vitrimers provide a promising strategy to address both the recyclability of thermosets and the need for more sustainable materials. The use of bio-based chemicals in vitrimer production can further help reduce the environmental impact and toxicity, supporting the transition to circular polymer systems. This review summarizes recent advances in bio-based vitrimer systems, with particular emphasis on renewable feedstocks such as carbohydrates, lignin-derived aromatics, and vegetable oils, and their translation into functional materials. Rather than focusing solely on exchange chemistry concepts, the manuscript highlights the emerging applications of newly developed bio-based vitrimers in composites, packaging, additive manufacturing, adhesives, electronics, and foams. By organizing recent literature according to feedstock families and application domains, this work provides an updated, application-oriented perspective on the development of sustainable vitrimer technologies. Overall, bio-based vitrimers represent a promising platform for the development of next-generation recyclable thermosets within a circular and sustainable polymer framework.

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生物基玻璃体:化学、性能和应用
尽管在工业应用中被广泛使用,热固性聚合物可以说是现代社会面临的一个重大挑战,因为它们几乎不可能回收和再加工。此外,很难找到生物基替代品来替代用于生产的化石基构件,这些构件可以提供相当的机械性能。这些限制促使人们对玻璃聚合体越来越感兴趣,这种结合共价适应性网络能够通过动态共价交换在不改变交联密度的情况下被回收、焊接和再加工。玻璃聚合物提供了一个很有前途的策略来解决热固性材料的可回收性和对更可持续材料的需求。在玻璃体生产中使用生物基化学品可以进一步帮助减少对环境的影响和毒性,支持向循环聚合物系统的过渡。本文综述了生物基玻璃体体系的最新进展,重点介绍了碳水化合物、木质素衍生芳烃和植物油等可再生原料及其转化为功能材料的研究进展。而不是仅仅专注于交换化学概念,手稿强调了新开发的生物基玻璃体在复合材料,包装,增材制造,粘合剂,电子和泡沫中的新兴应用。通过根据原料家族和应用领域组织最近的文献,本工作为可持续的玻璃体技术的发展提供了一个更新的、面向应用的视角。总体而言,生物基玻璃体代表了在循环和可持续聚合物框架内开发下一代可回收热固性材料的有前途的平台。
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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