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Optimization of submerged fermentation conditions to overproduce bioethanol using two industrial and traditional Saccharomyces cerevisiae strains

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바이오화학분류
    • 바이오플라스틱
      1. 플라스틱
    • 바이오정밀화학
      1. 용매
      2. 화학제품
      3. 연료
    • 화장품용 기능성소재
      1. 계면활성제⁄증점제
    • 의료용 화학소재
      1. 식품첨가제
논문

Optimization of submerged fermentation conditions to overproduce bioethanol using two industrial and traditional Saccharomyces cerevisiae strains

학술지

Green processing and synthesis

저자명

Shaghaghi-Moghaddam, Reza; Jafarizadeh-Malmiri, Hoda; Mehdikhani, Parviz; Alijanianzadeh, Reza; Jalalian, Sepide

초록

<P><B>Abstract</B></P><P>The present study focuses on the overproduction of bioethanol through submerged fermentation. In a batch-scale submerged bioreactor using a traditional and an industrial<I>Saccharomyces cerevisiae</I>(NCYC 4109 and SFO6) strains, the fermentation was accomplished. The effects of the substrate brix (20.50-24.00 °Bx) and inoculum percentage in the initial fermentation solution (15%-45%) as independent variables on bioethanol production (g/l) as the dependent variable were assessed using the response surface methodology. Using the obtained experimental values for the response variable based on experiments for the fermentation parameters, a general model (second-order) with high coefficient of determination values (<I>R</I><SUP>2</SUP>> 95%) was generated to predict the bioethanol concentrations that were obtained using both yeast strains. The obtained results indicated that the optimum fermentation conditions to overproduce bioethanol (56.14 g/l) using the SFO6 yeast were at the substrate brix and inoculum percentage values of 24.70 °Bx and 26.35%, respectively. However, a higher concentration of bioethanol (53.1 g/l) using the NCYC 4109 yeast strain was obtained at the substrate brix and inoculum percentage values of 24.68 °Bx and 40.07%, respectively.</P>

발행연도

2019

발행기관

De Gruyter

라이선스

cc-by

ISSN

2191-9542

ISSN

2191-9550

8

1

페이지

pp.157-162

주제어

bioethanol production; inoculum density; optimization; response surface methodology; Saccharomyces cerevisiae

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1 2023-12-11

논문; 2019-01-28

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