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Designer biomass for next-generation biorefineries: leveraging recent insights into xylan structure and biosynthesis

机译:下一代生物精炼厂的设计人员生物量:利用对木聚糖结构和生物合成的最新见解

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摘要

Xylans are the most abundant noncellulosic polysaccharides in lignified secondary cell walls of woody dicots and in both primary and secondary cell walls of grasses. These polysaccharides, which comprise 20–35% of terrestrial biomass, present major challenges for the efficient microbial bioconversion of lignocellulosic feedstocks to fuels and other value-added products. Xylans play a significant role in the recalcitrance of biomass to degradation, and their bioconversion requires metabolic pathways that are distinct from those used to metabolize cellulose. In this review, we discuss the key differences in the structural features of xylans across diverse plant species, how these features affect their interactions with cellulose and lignin, and recent developments in understanding their biosynthesis. In particular, we focus on how the combined structural and biosynthetic knowledge can be used as a basis for biomass engineering aimed at developing crops that are better suited as feedstocks for the bioconversion industry.
机译:木聚糖是木质双子叶植物木质化的次生细胞壁以及草的初生和次生细胞壁中含量最高的非纤维素多糖。这些多糖占陆地生物量的20-35%,对木质纤维素原料进行有效的微生物生物转化为燃料和其他增值产品提出了重大挑战。木聚糖在生物质的抗拒降解中起着重要作用,并且它们的生物转化需要不同于用于代谢纤维素的代谢途径的代谢途径。在这篇综述中,我们讨论了不同植物物种中木聚糖结构特征的主要差异,这些特征如何影响它们与纤维素和木质素的相互作用以及了解其生物合成的最新进展。特别是,我们专注于如何将结合的结构和生物合成知识用作生物质工程的基础,以开发更适合用作生物转化工业原料的农作物。

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