Carbon Dioxide Extraction Products as Biostimulators for Yeast Saccharomyces cerevisiae

Yeast cultures with advanced metabolic indicators improve various industrial biotechnological processes. New sources of biostimulators involve mainly natural resources, e.g., Taraxacum officinale Wigg. or Trifolium pratense L., as well as non-destructive extraction methods, e.g., supercritical fluid extraction (SCFE). This research featured the effect of CO2 extracts of T. officinale and T. pratense on the enzymatic and physiological profiles of yeast culture. The experiment involved CO2 extracts of T. officinale and T. pratense obtained by SCFE at 8.0–20.0 MPa and 40°C, as well as industrial brewer’s yeast. The method of gas chromatography made it possible to reveal the chemical composition of the extracts while the Warburg method revealed the fermentation activity of the yeast. The rational parameters of SCFE for T. officinale included a working pressure of 15.0 MPa while for T. pratense it was 8.0–15.0 MPa. The separate fractions of CO2 extracts obtained with SCFE differed in many aspects. The appearance varied from liquid to waxy. The refractive index correlated with the working pressure. The chemical composition was represented by different mixes of hydrocarbons, phenolic compounds, fatty acids, ketones, aldehydes, and alcohols. The bioactive potential demonstrated antibacterial, antioxidant, and other properties. The analysis involved the chemical composition of the CO2 extracts during longterm storage based on spectrograms and chemical composition. It showed a decrease in the concentration and transformation of polyphenols, flavonoids, and other essential oil components. The microbiological profile of the CO2 extracts was as follows: on storage day 30 at 20–24°C, they contained gram-negative bacteria. However, no microflora was detected when the storage conditions were 2–4°C in the dark. The initial extracts were also microflora-free. When treated with aqueous solutions of CO2 extracts of T. officinale and T. pratense for 20–30 min in an amount of 0.2–2.0% biomass volume, the yeast increased their fermentation activity by an average of 220% while the dead cell count went d own. In this research, the CO2 extracts of T. officinale and T. pratense demonstrated good prospects as industrial yeast biostimulators.

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Publication Details

Journal
Food Processing Techniques and Technology
Published
2025-10-08
DOI
https://doi.org/10.21603/2074-9414-2025-3-2592
Primary Topic
Plant responses to elevated CO2
Type
article
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article

Carbon Dioxide Extraction Products as Biostimulators for Yeast Saccharomyces cerevisiae

Yang Li, Yuyang Huang, Лариса Викторовна Пермякова, Сергей Серегевич Лашицкий et al.
Food Processing Techniques and Technology
Plant responses to elevated CO2
article

Carbon Dioxide Extraction Products as Biostimulators for Yeast Saccharomyces cerevisiae

Yang Li, Yuyang Huang, Лариса Викторовна Пермякова, Сергей Серегевич Лашицкий, Лариса Алексеевна Рябоконева, Irina Sergeeva
article en

Abstract

Yeast cultures with advanced metabolic indicators improve various industrial biotechnological processes. New sources of biostimulators involve mainly natural resources, e.g., Taraxacum officinale Wigg. or Trifolium pratense L., as well as non-destructive extraction methods, e.g., supercritical fluid extraction (SCFE). This research featured the effect of CO2 extracts of T. officinale and T. pratense on the enzymatic and physiological profiles of yeast culture. The experiment involved CO2 extracts of T. officinale and T. pratense obtained by SCFE at 8.0–20.0 MPa and 40°C, as well as industrial brewer’s yeast. The method of gas chromatography made it possible to reveal the chemical composition of the extracts while the Warburg method revealed the fermentation activity of the yeast. The rational parameters of SCFE for T. officinale included a working pressure of 15.0 MPa while for T. pratense it was 8.0–15.0 MPa. The separate fractions of CO2 extracts obtained with SCFE differed in many aspects. The appearance varied from liquid to waxy. The refractive index correlated with the working pressure. The chemical composition was represented by different mixes of hydrocarbons, phenolic compounds, fatty acids, ketones, aldehydes, and alcohols. The bioactive potential demonstrated antibacterial, antioxidant, and other properties. The analysis involved the chemical composition of the CO2 extracts during longterm storage based on spectrograms and chemical composition. It showed a decrease in the concentration and transformation of polyphenols, flavonoids, and other essential oil components. The microbiological profile of the CO2 extracts was as follows: on storage day 30 at 20–24°C, they contained gram-negative bacteria. However, no microflora was detected when the storage conditions were 2–4°C in the dark. The initial extracts were also microflora-free. When treated with aqueous solutions of CO2 extracts of T. officinale and T. pratense for 20–30 min in an amount of 0.2–2.0% biomass volume, the yeast increased their fermentation activity by an average of 220% while the dead cell count went d own. In this research, the CO2 extracts of T. officinale and T. pratense demonstrated good prospects as industrial yeast biostimulators.

Food Processing Techniques and Technology
Northeast Agricultural University (CN), Harbin University of Commerce (CN), Kemerovo State University (RU)
Openalex Percentile: Top 79%
Plant responses to elevated CO2
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