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Metabolic Engineering for Production of Biorenewable Fuels and Chemicals: Contributions of Synthetic Biology

机译:用于生产生物可再生燃料和化学物质的代谢工程:合成生物学的贡献

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摘要

Production of fuels and chemicals through microbial fermentation of plant material is a desirable alternative to petrochemicalbased production. Fermentative production of biorenewable fuels and chemicals requires the engineering of biocatalysts that can quickly and efficiently convert sugars to target products at a cost that is competitive with existing petrochemical-based processes. It is also important that biocatalysts be robust to extreme fermentation conditions, biomass-derived inhibitors, and their target products. Traditional metabolic engineering has made great advances in this area, but synthetic biology has contributed and will continue to contribute to this field, particularly with next-generation biofuels. This work reviews the use of metabolic engineering and synthetic biology in biocatalyst engineering for biorenewable fuels and chemicals production, such as ethanol, butanol, acetate, lactate, succinate, alanine, and xylitol. We also examine the existing challenges in this area and discuss strategies for improving biocatalyst tolerance to chemical inhibitors.
机译:通过植物材料的微生物发酵生产燃料和化学品是基于石油化学的生产的理想替代方案。生物可再生燃料和化学品的发酵生产需要生物催化剂的工程设计,该生物催化剂可以快速有效地将糖转化为目标产品,而成本却与现有的基于石油化学的工艺竞争。同样重要的是,生物催化剂必须对极端发酵条件,生物质衍生的抑制剂及其目标产品具有抵抗力。传统的代谢工程学在这一领域取得了长足的进步,但是合成生物学在这一领域做出了贡献,并将继续为这一领域做出贡献,特别是在下一代生物燃料方面。这项工作回顾了代谢工程和合成生物学在生物催化剂工程中用于生物可再生燃料和化学品生产的用途,例如乙醇,丁醇,乙酸盐,乳酸盐,琥珀酸盐,丙氨酸和木糖醇。我们还将研究该领域中的现有挑战,并讨论提高生物催化剂对化学抑制剂耐受性的策略。

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