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High-density fed-batch culture of a thermotolerant microalga Chlorella sorokiniana for biofuel production

► Reveal the relationship between nitrogen consumption and pH change. ► Obtain a high growth rate of 0.133h−1 through optimization. ► Achieve high biomass and lipid concentrations of 103.8gL−1 and 40.2gL−1. ► Perform lipid class analysis for the microalga Chlorella sorokiniana. ► Evaluate biodiesel...

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Published in:Applied energy 2013-08, Vol.108, p.281-287
Main Authors: Zheng, Yubin, Li, Tingting, Yu, Xiaochen, Bates, Philip D., Dong, Tao, Chen, Shulin
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creator Zheng, Yubin
Li, Tingting
Yu, Xiaochen
Bates, Philip D.
Dong, Tao
Chen, Shulin
description ► Reveal the relationship between nitrogen consumption and pH change. ► Obtain a high growth rate of 0.133h−1 through optimization. ► Achieve high biomass and lipid concentrations of 103.8gL−1 and 40.2gL−1. ► Perform lipid class analysis for the microalga Chlorella sorokiniana. ► Evaluate biodiesel characteristics based on the fatty acids compositions. Culturing microalgae heterotrophically for producing lipid-based biofuels such as biodiesel and renewable hydrocarbons has attracted increasing attention due to the advantages of fast growth and high lipid yield under this growth mode without being subjected to light limitation. High cell density in the culture broth is desirable for reducing downstream processing costs. Oleaginous microalga Chlorella sorokiniana was investigated for high cell density culture with glucose as the carbon source. Best growth performance was obtained first with batch culture at pH 7.0 when ammonium was the nitrogen source. Then, two-stage fed-batch fermentation was conducted under the optimal conditions. The algal biomass grew linearly in the first stage with a productivity of 24.2gL−1d−1, and the lipid content increased from 14.5% to 38.7% in the second stage. This fermentation strategy resulted in algal biomass and lipid concentrations of 103.8gL−1 and 40.2gL−1 respectively. Analysis of lipid and fatty acid profiles showed C. sorokiniana accumulated a large amount of neutral lipids (92.9% of total lipids), triacylglycerols (82.8% of neutral lipids), and high contents of palmitic, oleic and linoleic acids, which are ideal form of lipid for making biodiesel. These results suggest that heterotrophic culture of C. sorokiniana holds great potential for lipid-based biofuel production.
doi_str_mv 10.1016/j.apenergy.2013.02.059
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Culturing microalgae heterotrophically for producing lipid-based biofuels such as biodiesel and renewable hydrocarbons has attracted increasing attention due to the advantages of fast growth and high lipid yield under this growth mode without being subjected to light limitation. High cell density in the culture broth is desirable for reducing downstream processing costs. Oleaginous microalga Chlorella sorokiniana was investigated for high cell density culture with glucose as the carbon source. Best growth performance was obtained first with batch culture at pH 7.0 when ammonium was the nitrogen source. Then, two-stage fed-batch fermentation was conducted under the optimal conditions. The algal biomass grew linearly in the first stage with a productivity of 24.2gL−1d−1, and the lipid content increased from 14.5% to 38.7% in the second stage. This fermentation strategy resulted in algal biomass and lipid concentrations of 103.8gL−1 and 40.2gL−1 respectively. Analysis of lipid and fatty acid profiles showed C. sorokiniana accumulated a large amount of neutral lipids (92.9% of total lipids), triacylglycerols (82.8% of neutral lipids), and high contents of palmitic, oleic and linoleic acids, which are ideal form of lipid for making biodiesel. 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Culturing microalgae heterotrophically for producing lipid-based biofuels such as biodiesel and renewable hydrocarbons has attracted increasing attention due to the advantages of fast growth and high lipid yield under this growth mode without being subjected to light limitation. High cell density in the culture broth is desirable for reducing downstream processing costs. Oleaginous microalga Chlorella sorokiniana was investigated for high cell density culture with glucose as the carbon source. Best growth performance was obtained first with batch culture at pH 7.0 when ammonium was the nitrogen source. Then, two-stage fed-batch fermentation was conducted under the optimal conditions. The algal biomass grew linearly in the first stage with a productivity of 24.2gL−1d−1, and the lipid content increased from 14.5% to 38.7% in the second stage. This fermentation strategy resulted in algal biomass and lipid concentrations of 103.8gL−1 and 40.2gL−1 respectively. 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subjects Algae
ammonium nitrogen
Applied sciences
batch fermentation
biodiesel
Biofuel
Biomass
carbon
Chlorella
Chlorella sorokiniana
Culture
culture media
Density
Energy
Exact sciences and technology
fatty acid composition
Fed-batch culture
Fermentation
Fuels
glucose
growth performance
heat tolerance
Heterotrophic
hydrocarbons
linoleic acid
Lipid
lipid content
Lipids
microalgae
triacylglycerols
title High-density fed-batch culture of a thermotolerant microalga Chlorella sorokiniana for biofuel production
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