This review summarizes recent advances in harnessing yeast biodiversity for industrial applications, including natural yeast diversity derived from ecological adaptation and genetic variation across diverse environments, and artificial diversity generated through adaptive laboratory evolution, metabolic or epigenetic engineering, and synthetic biology.
Abstract
Abstract Budding yeast Saccharomyces cerevisiae and various non-conventional species are widely applied in the production of diverse industrial products, including pharmaceuticals, biofuels, biochemicals, and biomaterials, due to their rich natural and engineered biodiversity. This review summarizes recent advances in harnessing yeast biodiversity for industrial applications, including natural yeast diversity derived from ecological adaptation and genetic variation across diverse environments, and artificial diversity generated through adaptive laboratory evolution, metabolic or epigenetic engineering, and synthetic biology. We highlight the establishment of strain-level culture libraries and extremophilic yeasts as models for stress adaptation. In addition, we emphasize that the integration of multi-omics analysis, AI-assisted enzyme and strain engineering, and process optimization strategies are critical for the fully exploration and utilization of yeast biodiversity for efficient bioproduction.
This review systematically summarize recent progress in the metabolic engineering of Candida species as microbial cell factories, with particular emphasis on expanding genetic toolkits, utilizting renewable and non-conventional carbon sources, and biosynthesizing high-value compounds.
It is concluded that microbial diversity is technologically valuable when converted into predictable, robust and recoverable function at relevant scale when converted into phenotype-to-process matching.
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Simple Summary Yeasts are promising sources and production hosts for antioxidants used in food, health, and biotechnology, but not all compounds described as yeast-associated originate directly from yeast metabolism. This review summarizes the major classes and biological origins of yeast-associated antioxidants, disti...
Key research priorities including development of genetically stable microbial strains, improved oxygen-management strategies, and integrated strain-process engineering required to translate MC production from laboratory to commercially viable biofactories are identified.
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Thaynara Lorenzoni Entringer, W. B. da Silveira· World Journal of Microbiolog...· 0 citations
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