Cultivation optimization promotes ginsenoside and universal triterpenoid production by engineered yeast

Ginseng, a cornerstone of traditional herbal medicine in Asia, garnered significant attention for its therapeutic potential. Central to its pharmacological effects are ginsenosides, the primary active metabolites, many of which fall within the dammarane-type and share protopanaxadiol as a common precursor. Challenges in extracting protopanaxadiol and ginsenosides from ginseng arise due to their low concentrations in the roots. Emerging solutions involve leveraging microbial cell factories employing genetically engineered yeasts. Here, we optimized the fermentation conditions via the Design of Experiment, realizing 1.2 g/L protopanaxadiol in simple shake flask cultivations. Extrapolating the optimized setup to complex ginsenosides, like compound K, achieved 7.3-fold (0.22 g/L) titer improvements. Our adaptable fermentation conditions enable the production of high-value products, such as sustainable triterpenoids synthesis. Through synthetic biology, microbial engineering, and formulation studies, we pave the way for a scalable and sustainable production of bioactive compounds from ginseng.

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Publication Details

Journal
New Biotechnology
Published
2024-08-23
DOI
https://doi.org/10.1016/j.nbt.2024.08.505
Citations
4
Primary Topic
Ginseng Biological Effects and Applications
Type
article
Field-Weighted Citation Impact
0.94

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article

Cultivation optimization promotes ginsenoside and universal triterpenoid production by engineered yeast

Shangkun Qiu, Conrad Müller, Lars M. Blank, Roy Eerlings et al.
4 citations
New Biotechnology
Ginseng Biological Effects and Applications
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article

Cultivation optimization promotes ginsenoside and universal triterpenoid production by engineered yeast

Shangkun Qiu, Conrad Müller, Lars M. Blank, Roy Eerlings, Ulf W. Liebal, Mariam Dianat Sabet Gilani, Roberto-Michael Zarazua-Navarro
article en
4 citations

Abstract

Ginseng, a cornerstone of traditional herbal medicine in Asia, garnered significant attention for its therapeutic potential. Central to its pharmacological effects are ginsenosides, the primary active metabolites, many of which fall within the dammarane-type and share protopanaxadiol as a common precursor. Challenges in extracting protopanaxadiol and ginsenosides from ginseng arise due to their low concentrations in the roots. Emerging solutions involve leveraging microbial cell factories employing genetically engineered yeasts. Here, we optimized the fermentation conditions via the Design of Experiment, realizing 1.2 g/L protopanaxadiol in simple shake flask cultivations. Extrapolating the optimized setup to complex ginsenosides, like compound K, achieved 7.3-fold (0.22 g/L) titer improvements. Our adaptable fermentation conditions enable the production of high-value products, such as sustainable triterpenoids synthesis. Through synthetic biology, microbial engineering, and formulation studies, we pave the way for a scalable and sustainable production of bioactive compounds from ginseng.

New BiotechnologyVol. 83
RWTH Aachen University (DE)
European Commission, China Scholarship Council
Zero hunger
Openalex Percentile: Top 26%
Ginseng Biological Effects and Applications
0.94
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