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将生物质DNA转化为从凝胶到塑料的可生物降解材料以减少石化产品消耗。

Transformation of Biomass DNA into Biodegradable Materials from Gels to Plastics for Reducing Petrochemical Consumption.

作者信息

Wang Dong, Cui Jinhui, Gan Mingzhe, Xue Zhaohui, Wang Jing, Liu Peifeng, Hu Yue, Pardo Yehudah, Hamada Shogo, Yang Dayong, Luo Dan

机构信息

Department of Biological and Environmental Engineering, Cornell University, Ithaca, New York 14853, United States.

CAS Key Laboratory of Nano-Bio Interface, Suzhou Institute of Nano-Tech and Nano-Bionics, Chinese Academy of Sciences, Suzhou 215123, China.

出版信息

J Am Chem Soc. 2020 Jun 3;142(22):10114-10124. doi: 10.1021/jacs.0c02438. Epub 2020 May 26.

Abstract

Ancient biomass is the main source for petrochemicals including plastics, which are inherently difficult to be degraded, increasingly polluting the earth's ecosystem including our oceans. To reduce the consumption by substituting or even replacing most of the petrochemicals with degradable and renewable materials is inevitable and urgent for a sustainable future. We report here a unique strategy to directly convert biomass DNA, at a large scale and with low cost, to diverse materials including gels, membranes, and plastics without breaking down DNA first into building blocks and without polymer syntheses. With excellent and sometimes unexpected, useful properties, we applied these biomass DNA materials for versatile applications for drug delivery, unusual adhesion, multifunctional composites, patterning, and everyday plastic objects. We also achieved cell-free protein production that had not been possible by petrochemical-based products. We expect our biomass DNA conversion approach to be adaptable to other biomass molecules including biomass proteins. We envision a promising and exciting era coming where biomass may replace petrochemicals for most if not all petro-based products.

摘要

古代生物质是包括塑料在内的石化产品的主要来源,而塑料本身难以降解,正日益污染包括海洋在内的地球生态系统。用可降解和可再生材料替代甚至取代大部分石化产品以减少其消耗,对于实现可持续未来而言是不可避免且紧迫的。我们在此报告一种独特的策略,可大规模且低成本地将生物质DNA直接转化为多种材料,包括凝胶、膜和塑料,无需先将DNA分解为构建模块,也无需进行聚合物合成。这些生物质DNA材料具有优异且有时出人意料的有用特性,我们将其应用于药物递送、特殊粘附、多功能复合材料、图案化以及日常塑料制品等多种用途。我们还实现了基于石化产品无法达成的无细胞蛋白质生产。我们期望我们的生物质DNA转化方法能够适用于包括生物质蛋白质在内的其他生物质分子。我们设想一个充满希望且令人兴奋的时代即将到来,在这个时代,生物质可能会取代大部分(如果不是全部)石化基产品中的石化原料。

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