用于木质纤维素乙醇生产的酿酒酵母:关键属性和基因组洗牌。

IF 4.3 3区 工程技术 Q1 BIOTECHNOLOGY & APPLIED MICROBIOLOGY Frontiers in Bioengineering and Biotechnology Pub Date : 2024-09-25 eCollection Date: 2024-01-01 DOI:10.3389/fbioe.2024.1466644
Kindu Nibret Tsegaye, Marew Alemnew, Nega Berhane
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引用次数: 0

摘要

如今,生物乙醇研究正着眼于使用非食用植物原料(称为木质纤维素原料),因为它们便宜、丰富且可再生。然而,这些原料非常复杂,需要经过预处理才能释放出可发酵的糖分。酿酒酵母是生物乙醇生产的工业主力军,在含糖环境中生长旺盛,可以处理高浓度的乙醇。然而,在木质纤维素发酵过程中,酿酒酵母面临着各种挑战,如糖和乙醇浓度过高、温度过高,甚至预处理原料中存在某些有毒物质。此外,麦角菌还难以有效转化木质纤维素水解物中的所有糖类(己糖和戊糖)。因此,科学家们正在探索酵母菌株的自然变异,甚至想方设法改良它们。这篇综述强调了为什么酿酒酵母仍然是利用木质纤维素大规模生产生物乙醇的关键因素,并讨论了基因组重组创造更高效酵母菌株的潜力。
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Saccharomyces cerevisiae for lignocellulosic ethanol production: a look at key attributes and genome shuffling.

These days, bioethanol research is looking at using non-edible plant materials, called lignocellulosic feedstocks, because they are cheap, plentiful, and renewable. However, these materials are complex and require pretreatment to release fermentable sugars. Saccharomyces cerevisiae, the industrial workhorse for bioethanol production, thrives in sugary environments and can handle high levels of ethanol. However, during lignocellulose fermentation, S. cerevisiae faces challenges like high sugar and ethanol concentrations, elevated temperatures, and even some toxic substances present in the pretreated feedstocks. Also, S. cerevisiae struggles to efficiently convert all the sugars (hexose and pentose) present in lignocellulosic hydrolysates. That's why scientists are exploring the natural variations within Saccharomyces strains and even figuring out ways to improve them. This review highlights why Saccharomyces cerevisiae remains a crucial player for large-scale bioethanol production from lignocellulose and discusses the potential of genome shuffling to create even more efficient yeast strains.

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来源期刊
Frontiers in Bioengineering and Biotechnology
Frontiers in Bioengineering and Biotechnology Chemical Engineering-Bioengineering
CiteScore
8.30
自引率
5.30%
发文量
2270
审稿时长
12 weeks
期刊介绍: The translation of new discoveries in medicine to clinical routine has never been easy. During the second half of the last century, thanks to the progress in chemistry, biochemistry and pharmacology, we have seen the development and the application of a large number of drugs and devices aimed at the treatment of symptoms, blocking unwanted pathways and, in the case of infectious diseases, fighting the micro-organisms responsible. However, we are facing, today, a dramatic change in the therapeutic approach to pathologies and diseases. Indeed, the challenge of the present and the next decade is to fully restore the physiological status of the diseased organism and to completely regenerate tissue and organs when they are so seriously affected that treatments cannot be limited to the repression of symptoms or to the repair of damage. This is being made possible thanks to the major developments made in basic cell and molecular biology, including stem cell science, growth factor delivery, gene isolation and transfection, the advances in bioengineering and nanotechnology, including development of new biomaterials, biofabrication technologies and use of bioreactors, and the big improvements in diagnostic tools and imaging of cells, tissues and organs. In today`s world, an enhancement of communication between multidisciplinary experts, together with the promotion of joint projects and close collaborations among scientists, engineers, industry people, regulatory agencies and physicians are absolute requirements for the success of any attempt to develop and clinically apply a new biological therapy or an innovative device involving the collective use of biomaterials, cells and/or bioactive molecules. “Frontiers in Bioengineering and Biotechnology” aspires to be a forum for all people involved in the process by bridging the gap too often existing between a discovery in the basic sciences and its clinical application.
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