Oxidative versus reductive succinic acid production in the yeast Saccharomyces cerevisiae.

Andreas M Raab, Christine Lang
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引用次数: 53

Abstract

Bio-based succinic acid is receiving increasing attention, as it could provide a cost-effective, ecologically sustainable alternative to the current petrochemical production process, thus promising a significantly higher market potential. The yeast Saccharomyces cerevisiae is a robust and well-established industrial production organism exhibiting an extraordinarily high acid- and osmotolerance. These features in conjunction with the sophisticated toolbox for genetic engineering make it particularly suitable for succinic acid production. The high tolerance towards acidity is a major advantage over previously established bacterial succinic acid production hosts, since it makes the use of neutralisation salts dispensable and thus enormously facilitates the downstream process. By constructing yeast strains capable of producing significant amounts of succinic acid, we have recently established S. cerevisiae as a promising host for succinic acid production. Our metabolic engineering strategy relied on the implementation of an oxidative production route using the glyoxylate cycle. We here discuss theoretical and practical aspects of oxidative and reductive succinic acid production routes in S. cerevisiae.

氧化与还原性琥珀酸在酿酒酵母中的生产。
生物基琥珀酸正受到越来越多的关注,因为它可以为目前的石化生产过程提供一种成本效益高、生态可持续的替代方案,因此具有更大的市场潜力。酿酒酵母是一种健壮的、成熟的工业生产生物,具有非常高的酸和渗透耐受性。这些特点与复杂的基因工程工具箱相结合,使其特别适合琥珀酸的生产。与以前建立的细菌琥珀酸生产宿主相比,对酸度的高耐受性是一个主要优势,因为它使中和盐的使用变得不必要,从而极大地促进了下游过程。通过构建能够产生大量琥珀酸的酵母菌株,我们最近确定了酿酒酵母是琥珀酸生产的有前途的宿主。我们的代谢工程策略依赖于使用乙醛酸循环的氧化生产路线的实施。我们在此讨论了酿酒酵母氧化和还原琥珀酸生产途径的理论和实践方面。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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