Carbohydrate-based alternatives to traditional synthetic plastic microbeads: a critical review

Amy McMackin and Sébastien Cardinal
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Abstract

Microplastics in the environment threaten ecosystems around the world. Primary microplastics, including porous spherical particles known as microbeads, are actively produced by industry for use in cosmetics, exfoliants, household cleaning supplies, biomedical applications, and more. Not only do microbeads persist in the environment, leading to significant problems, but traditional plastic microbeads are commonly sourced from non-renewable resources and produced using toxic manufacturing processes. For these reasons, there is a push to develop environmentally friendly alternatives, notably from carbohydrate biopolymers. This paper reviews the carbohydrates used to prepare pure bioplastic microbeads. The results also compare the environmental impact, versatility, and capacity of these beads to perform the same functions as those of traditional plastic microbeads. Although we demonstrate that carbohydrate-based plastic microbeads pose a lesser environmental threat than conventional petroleum- or biobased synthetic options, this work concludes that the specific ecological impacts and potential applications vary widely. Among the biopolymers discussed within this review, we conclude that cellulose, chitin, or chitosan-based varieties hold considerable potential to provide an eco-friendly microbead for industry.

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以碳水化合物为基础的传统合成塑料微珠替代品:一项重要的综述
环境中的微塑料威胁着世界各地的生态系统。初级微塑料,包括被称为微珠的多孔球形颗粒,被工业积极生产,用于化妆品,去角质剂,家用清洁用品,生物医学应用等。微珠不仅在环境中持续存在,导致重大问题,而且传统的塑料微珠通常来自不可再生资源,并且使用有毒的制造工艺生产。由于这些原因,人们正在推动开发环境友好的替代品,特别是碳水化合物生物聚合物。本文综述了用于制备纯生物塑料微珠的碳水化合物。研究结果还比较了这些塑料微珠的环境影响、多功能性以及与传统塑料微珠具有相同功能的能力。尽管我们证明了碳水化合物基塑料微珠对环境的威胁小于传统的石油或生物基合成选择,但这项工作得出的结论是,具体的生态影响和潜在的应用存在很大差异。在这篇综述中讨论的生物聚合物中,我们得出结论,纤维素、几丁质或壳聚糖为基础的品种具有相当大的潜力,可以为工业提供环保的微球。
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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CiteScore
0.60
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