Characterization of biopolymers using terahertz techniques to promote a green cycle

Yue Liu , Sinan Zheng , Mingrui Han , Sen Jiao , Yiling Sui , Fei Pan , Jiurong Liu , Zhihui Zeng , Na Wu
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Abstract

The depletion of natural resources, escalating climate change, and environmental degradation underscore the urgent need to adopt circular economy models in biomaterial production and utilization. These models aim to reduce waste from conventional sources, minimize reliance on petrochemical feedstocks, and promote the recycling of materials, which is crucial for a sustainable transition. Bio-based materials, including those derived from agricultural waste, exemplify the innovative recycling strategies central to circular economies, offering environmentally friendly alternatives to traditional petrochemical-based products. In this context, terahertz (THz) technology, widely employed in non-destructive testing, detection, imaging, and quality control in various industries, holds considerable potential for enhancing the production and quality of biopolymers. Although THz characterization techniques do not directly improve biopolymer performance, they can optimize production processes by providing detailed insights into material properties, thus contributing to the enhancement of biopolymer quality and, in turn, indirectly extending their lifecycle. This review consolidates recent research on the application of THz technology in the biopolymer sector, emphasizing its role in improving material analysis and supporting the development of closed-loop processes, thereby advancing sustainability and resource efficiency in biotechnological applications.
利用太赫兹技术表征生物聚合物以促进绿色循环
自然资源枯竭、气候变化加剧、环境恶化,迫切需要在生物材料的生产和利用中采用循环经济模式。这些模式旨在减少传统来源的浪费,最大限度地减少对石化原料的依赖,并促进材料的回收利用,这对可持续转型至关重要。生物基材料,包括从农业废物中提取的材料,体现了创新的回收战略,对循环经济至关重要,为传统的石化产品提供了环境友好的替代品。在这种情况下,太赫兹(THz)技术广泛应用于各种工业的无损检测、检测、成像和质量控制,在提高生物聚合物的生产和质量方面具有相当大的潜力。虽然太赫兹表征技术不能直接提高生物聚合物的性能,但它们可以通过提供对材料特性的详细见解来优化生产过程,从而有助于提高生物聚合物的质量,进而间接延长其生命周期。本文综述了太赫兹技术在生物聚合物领域应用的最新研究,强调了其在改进材料分析和支持闭环过程发展方面的作用,从而提高了生物技术应用的可持续性和资源效率。
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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