Leonardo Rios‐Solis

This paper evolves a Saccharomyces cerevisiae strain tolerant to oxidative stress, leading to higher taxadiene production, and identifies metabolic changes contributing to this improvement.

The paper uses in silico design and metabolic engineering to improve Taxol(R) precursor production in yeast, achieving a 50% increase in taxadiene yield.

ACtivE enables rapid, cost-effective yeast genome editing by in vivo DNA assembly, achieving high integration efficiency without cloning or reagents.

This paper demonstrates the bioconversion of cellulose into bisabolene, a biojet fuel candidate, using rumen bacteria and non-conventional yeast in a sequential bioprocess.

This study develops ddPCR assays to accurately quantify pork and beef DNA in meat products, achieving low detection limits and reliable quantification for adulteration detection.

This study improves taxadiene production in Saccharomyces cerevisiae by engineering TASY solubility and optimizing bioprocess variables, achieving up to 129 mg/L at 20°C.

This paper develops a method combining LAMP and AuNP-nanoprobe assay for pork authentication in processed-meat products, achieving high sensitivity and specificity.