High cell density culture of baker's yeast FX‐2 based on pH‐stat coupling with respiratory quotient

The high cell density culture of baker's yeast FX‐2 was investigated in a 50 L(A) automatic bioreactor. Herein, it was found firstly that the Crabtree effect clearly existed in batch fermentation with higher glucose content, then the critical initial glucose content range (≤2.00 g L−1) was reas...

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Veröffentlicht in:Biotechnology and applied biochemistry 2019-05, Vol.66 (3), p.389-397
Hauptverfasser: Li, Xiao, Huang, Cong, Xu, Chao‐Qun, Tan, Ya‐Li, Luo, Yu‐Di, Zou, Kun, Li, Jian‐Hua, Deng, Zhang‐Shuang, Zheng, Zhong, Ye, Han, Zhang, Xiao‐Long, Zheng, Nian
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container_end_page 397
container_issue 3
container_start_page 389
container_title Biotechnology and applied biochemistry
container_volume 66
creator Li, Xiao
Huang, Cong
Xu, Chao‐Qun
Tan, Ya‐Li
Luo, Yu‐Di
Zou, Kun
Li, Jian‐Hua
Deng, Zhang‐Shuang
Zheng, Zhong
Ye, Han
Zhang, Xiao‐Long
Zheng, Nian
description The high cell density culture of baker's yeast FX‐2 was investigated in a 50 L(A) automatic bioreactor. Herein, it was found firstly that the Crabtree effect clearly existed in batch fermentation with higher glucose content, then the critical initial glucose content range (≤2.00 g L−1) was reasonably ascertained to effectively avoid Crabtree effect. In the next fed‐batch fermentations with different strategies, the second strategy (maintain ethanol concentration lower than 0.10% and pH around 4.80) was confirmed to be more beneficial to yeast growth than the first strategy (keep reducing sugar not more than 2.00 g L−1 and control steady Carbon/Nitrogen ratio 3.05:1.00). After that, one optimal control strategy (maintain pH around 4.80 and keep respiratory quotient in the range of 0.90–1.00) was constructed to further enhance cell yield. Under an optimal control strategy, four schemes with the aim of achieving pH‐stat were compared, and yeast extract instead of other alkaline materials was selected as a better regulator. As a result, 148.37 g L−1 dry cell weight, 38.25 × 108 mL−1 living cells, and 8.24 g L−1 h−1 productivity were harvested, which respectively elevated 23.74%, 135.38%, and 24.47% compared to that obtained under the traditional scheme (regulate pH with ammonia); meanwhile, the maximum oxygen uptake rate and carbon dioxide excretion rate were both more than 250.00 mmol L−1 min−1.
doi_str_mv 10.1002/bab.1735
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Herein, it was found firstly that the Crabtree effect clearly existed in batch fermentation with higher glucose content, then the critical initial glucose content range (≤2.00 g L−1) was reasonably ascertained to effectively avoid Crabtree effect. In the next fed‐batch fermentations with different strategies, the second strategy (maintain ethanol concentration lower than 0.10% and pH around 4.80) was confirmed to be more beneficial to yeast growth than the first strategy (keep reducing sugar not more than 2.00 g L−1 and control steady Carbon/Nitrogen ratio 3.05:1.00). After that, one optimal control strategy (maintain pH around 4.80 and keep respiratory quotient in the range of 0.90–1.00) was constructed to further enhance cell yield. Under an optimal control strategy, four schemes with the aim of achieving pH‐stat were compared, and yeast extract instead of other alkaline materials was selected as a better regulator. 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Herein, it was found firstly that the Crabtree effect clearly existed in batch fermentation with higher glucose content, then the critical initial glucose content range (≤2.00 g L−1) was reasonably ascertained to effectively avoid Crabtree effect. In the next fed‐batch fermentations with different strategies, the second strategy (maintain ethanol concentration lower than 0.10% and pH around 4.80) was confirmed to be more beneficial to yeast growth than the first strategy (keep reducing sugar not more than 2.00 g L−1 and control steady Carbon/Nitrogen ratio 3.05:1.00). After that, one optimal control strategy (maintain pH around 4.80 and keep respiratory quotient in the range of 0.90–1.00) was constructed to further enhance cell yield. Under an optimal control strategy, four schemes with the aim of achieving pH‐stat were compared, and yeast extract instead of other alkaline materials was selected as a better regulator. 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Herein, it was found firstly that the Crabtree effect clearly existed in batch fermentation with higher glucose content, then the critical initial glucose content range (≤2.00 g L−1) was reasonably ascertained to effectively avoid Crabtree effect. In the next fed‐batch fermentations with different strategies, the second strategy (maintain ethanol concentration lower than 0.10% and pH around 4.80) was confirmed to be more beneficial to yeast growth than the first strategy (keep reducing sugar not more than 2.00 g L−1 and control steady Carbon/Nitrogen ratio 3.05:1.00). After that, one optimal control strategy (maintain pH around 4.80 and keep respiratory quotient in the range of 0.90–1.00) was constructed to further enhance cell yield. Under an optimal control strategy, four schemes with the aim of achieving pH‐stat were compared, and yeast extract instead of other alkaline materials was selected as a better regulator. As a result, 148.37 g L−1 dry cell weight, 38.25 × 108 mL−1 living cells, and 8.24 g L−1 h−1 productivity were harvested, which respectively elevated 23.74%, 135.38%, and 24.47% compared to that obtained under the traditional scheme (regulate pH with ammonia); meanwhile, the maximum oxygen uptake rate and carbon dioxide excretion rate were both more than 250.00 mmol L−1 min−1.</abstract><cop>United States</cop><pub>Wiley Subscription Services, Inc</pub><pmid>30715749</pmid><doi>10.1002/bab.1735</doi><tpages>9</tpages><orcidid>https://orcid.org/0000-0001-7219-2388</orcidid></addata></record>
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source Wiley Online Library Journals Frontfile Complete
subjects Ammonia
baker's yeast
Bioreactors
Carbon dioxide
Carbon/nitrogen ratio
Cell culture
Cell density
Crabtree effect
Density
Dry cells
Ethanol
Excretion
Fermentation
fermentation optimization
Glucose
high cell density culture
Materials selection
Optimal control
Oxygen uptake
pH effects
pH‐stat coupling with RQ
Quotients
Respiratory quotient
Strategy
Sugar
Yeast
title High cell density culture of baker's yeast FX‐2 based on pH‐stat coupling with respiratory quotient
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