将生物质可持续聚合物电纺丝用于活性食品包装

Fuat Topuz and Tamer Uyar
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引用次数: 0

摘要

利用电纺材料的固有优势,电纺材料的集成推动了活性食品包装领域的最新进展。电纺材料可以很容易地与抗氧化剂、抗菌剂、抗真菌剂、感官添加剂以及乙烯清除剂和二氧化碳释放剂进行功能化,使其成为活性食品包装的理想材料。不过,值得注意的是,在这种情况下使用的某些电纺材料来自石油基合成聚合物,使用后可能会引起环境问题。因此,在电纺食品包装材料中使用可持续聚合物可以解决废物产生和传统石油基合成聚合物对环境的影响等问题。这一转变的核心是利用从植物、藻类、微生物和废物等可再生资源中提取的生物质聚合物。聚乳酸 (PLA)、淀粉、纤维素及其衍生物、聚羟基烷酸酯 (PHA)、壳聚糖、明胶和玉米蛋白等可持续聚合物已成为活性食品包装的主要可持续材料。本综述全面概述了用于开发活性食品包装薄膜的生物质可持续聚合物电纺材料。综述首先简要介绍了活性食品包装和电纺丝的基本原理和工艺,然后按照聚合物类型和生物活性分类,详细分析了活性食品包装电纺材料的应用。最后,本综述总结了当前面临的挑战,并对该领域的未来前景提出了见解。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Electrospinning of sustainable polymers from biomass for active food packaging

Electrospinning of sustainable polymers from biomass for active food packaging

Recent advances in active food packaging have been driven by the integration of electrospun materials, exploiting their inherent advantages. Electrospun materials can be easily functionalized with antioxidant, antibacterial, antifungal, and sensory additives, as well as ethylene scavengers and CO2 emitters making them ideal for active food packaging. However, it's worth noting that certain electrospun materials utilized in this context are derived from petroleum-based synthetic polymers, which may raise environmental concerns post-usage. In this regard, the use of sustainable polymers for electrospun food packaging materials can address problems like waste generation and the environmental impact of traditional synthetic, petroleum-based polymers. Central to this transition is the utilization of biomass-derived polymers sourced from renewable sources like plants, algae, microorganisms, and wastes. Sustainable polymers, such as poly(lactic acid) (PLA), starch, cellulose and derivatives, polyhydroxyalkanoates (PHA), chitosan, gelatin, and zein have emerged as key sustainable players in active food packaging. This review provides a comprehensive overview of electrospun materials of sustainable polymers derived from biomass for the development of active food packaging films. The review begins with a brief description of the fundamentals and process for active food packaging and electrospinning, followed by a detailed examination of the applications of electrospun materials for active food packaging, categorized by polymer type and bioactivity. Finally, the review concludes with current challenges and provides insights into future perspectives in this area.

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