聚[(R)-3-羟基丁酸酯]:未来的绿色可生物降解生物塑料!

Yaser Dhaman, C. Ugwu
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引用次数: 6

摘要

版权所有:©2013 Dhaman Y, et al。这是一篇根据知识共享署名许可协议发布的开放获取文章,该协议允许在任何媒体上不受限制地使用、分发和复制,前提是要注明原作者和来源。目前,在日常生活中广泛使用的塑料材料大多是来源于化石燃料的不可生物降解产品。由于人口和工业化的增加,现在人们越来越意识到这些不可生物降解的塑料对环境的影响。现在很多人都在努力开发各种生物可降解塑料。可生物降解的聚合物大致可分为多核苷酸、聚酰胺、多糖、聚氧酯、聚硫酯、聚磷酸盐、聚异戊二烯和多酚类。聚[(R)-3-羟基丁酸酯](PHB)是聚氧酯(PHA)中研究最广泛的成员,其材料性能与聚丙烯[2]相当,是一种很有前途的生物降解塑料。PHB是由许多细菌产生的天然聚合物,作为碳和能量储存材料。PHB可以由可再生的低成本原料合成,其聚合过程在温和的工艺条件下进行,对环境的影响最小。已知许多微生物菌株在一定的生长条件下产生PHB。在这些细菌群中,研究最广泛的是真核r.h eutropha和A. latus[4,5],据报道PHB含量高达76% (w/w)[10]。此外,PHB可以在好氧和厌氧环境中降解,而不会形成任何有毒产物[7]。PHB可以用作生物材料(例如,骨再生、伤口敷料、缝合线等)。此外,它还可以作为包装材料[9]。一些研究还表明,PHB可以作为药物的微颗粒载体。
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Poly[(R)-3-hydroxybutyrate]: the Green Biodegradable Bioplastics of the Future!
Copyright: © 2013 Dhaman Y, et al. This is an open-access article distributed under the terms of the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original author and source are credited. At present, most plastic materials that are widely used on daily basis are non-biodegradable products derived from fossil fuels. Due to the increase in population and industrialization, there is now increased awareness of the impact of these non-biodegradable plastics on the environment. A lot of efforts are now geared towards developing various biodegradable plastics. Biodegradable polymers can be broadly classified under polynucleotides, polyamides, polysaccharides, polyoxoesters, polythioesters, polyphosphates, polyisoprenoides and polyphenols [1]. Poly[(R)-3-hydroxybutyrate] (PHB), the most widely studied member of PHA (polyoxoesters) is very promising as a biodegradable plastic because of its material properties which are comparable to those of the polypropylene [2]. PHB is a natural polymer produced by many bacteria as carbon and energy storage materials. PHB can be synthesized from renewable low-cost feedstocks and its polymerizations are operated under mild process conditions with minimal environmental impact [3]. A good number of microbial strains are known to produce PHB under certain growth conditions. Among these groups of bacteria, R. eutropha and A. latus are the most widely studied [4,5], and very high PHB contents up to 76% (w/w) have been reported [6]. Furthermore, PHB can be degraded in both aerobic and anaerobic environments, without forming any toxic products [7]. PHB can be used as biomaterials (e.g., bone regeneration, dressing of wounds, sutures, etc.) [8]. In addition, it can be used as packaging materials [9]. Some studies have also shown that PHB can serve as micro-particulate carrier of drugs [10].
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