Optimization of CO2 bio-mitigation by Chlorella vulgaris

•CO2 fixation rate by Chlorella vulgaris was optimized.•Growth parameters were affected by CO2 concentration and aeration rate.•Biochemical composition of algae did not change under different growth conditions. Biofixation of CO2 by microalgae has been recognized as an attractive approach to CO2 mit...

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Published in:	Bioresource technology Vol. 139; pp. 149 - 154
Main Authors:	Anjos, Mariana, Fernandes, Bruno D., Vicente, António A., Teixeira, José A., Dragone, Giuliano
Format:	Journal Article
Language:	English
Published:	Kidlington Elsevier Ltd 01.07.2013 Elsevier
Subjects:	Aeration Aeration rate Aerobiosis Aerobiosis - drug effects Biochemistry Biodegradation, Environmental Biodegradation, Environmental - drug effects Biological and medical sciences Biological mitigation Biomass bioreactors bubbles Carbon Cycle Carbon Cycle - drug effects Carbon Dioxide Carbon Dioxide - metabolism Carbon Dioxide - pharmacology Carbon dioxide sequestration chemical composition Chlorella vulgaris Chlorella vulgaris - drug effects Chlorella vulgaris - growth & development Chlorella vulgaris - metabolism Cultivation drug effects Fundamental and applied biological sciences. Psychology growth & development Lipid Metabolism Lipid Metabolism - drug effects metabolism Microalgae microbiology Optimization pharmacology Photobioreactors Photobioreactors - microbiology Proteins Proteins - metabolism risk reduction Starch Starch - metabolism Strategy Carbon dioxide sequestration Microalgae Aeration rate Biological mitigation Photobioreactors Algae Chlorella vulgaris Carbon dioxide CO2 sequestration Biology Chlorophyceae Optimization Aeration Chlorophyta Photobioreactor Mitigation measure Alga Microorganism
ISSN:	0960-8524, 1873-2976, 1873-2976
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Abstract	•CO2 fixation rate by Chlorella vulgaris was optimized.•Growth parameters were affected by CO2 concentration and aeration rate.•Biochemical composition of algae did not change under different growth conditions. Biofixation of CO2 by microalgae has been recognized as an attractive approach to CO2 mitigation. The main objective of this work was to maximize the rate of CO2 fixation (RCO2) by the green microalga Chlorella vulgaris P12 cultivated photoautotrophically in bubble column photobioreactors under different CO2 concentrations (ranging from 2% to 10%) and aeration rates (ranging from 0.1 to 0.7vvm). Results showed that the maximum RCO2 (2.22gL−1d−1) was obtained by using 6.5% CO2 and 0.5vvm after 7days of cultivation at 30°C. Although final biomass concentration and maximum biomass productivity of microalgae were affected by the different cultivation conditions, no significant differences were obtained in the biochemical composition of microalgal cells for the evaluated levels of aeration and CO2. The present study demonstrated that optimization of microalgal cultivation conditions can be considered a useful strategy for maximizing CO2 bio-mitigation by C. vulgaris.
AbstractList	Biofixation of CO2 by microalgae has been recognized as an attractive approach to CO2 mitigation. The main objective of this work was to maximize the rate of CO2 fixation ( [Formula: see text] ) by the green microalga Chlorella vulgaris P12 cultivated photoautotrophically in bubble column photobioreactors under different CO2 concentrations (ranging from 2% to 10%) and aeration rates (ranging from 0.1 to 0.7 vvm). Results showed that the maximum [Formula: see text] (2.22 gL(-1)d(-1)) was obtained by using 6.5% CO2 and 0.5 vvm after 7 days of cultivation at 30°C. Although final biomass concentration and maximum biomass productivity of microalgae were affected by the different cultivation conditions, no significant differences were obtained in the biochemical composition of microalgal cells for the evaluated levels of aeration and CO2. The present study demonstrated that optimization of microalgal cultivation conditions can be considered a useful strategy for maximizing CO2 bio-mitigation by C. vulgaris. •CO2 fixation rate by Chlorella vulgaris was optimized.•Growth parameters were affected by CO2 concentration and aeration rate.•Biochemical composition of algae did not change under different growth conditions. Biofixation of CO2 by microalgae has been recognized as an attractive approach to CO2 mitigation. The main objective of this work was to maximize the rate of CO2 fixation (RCO2) by the green microalga Chlorella vulgaris P12 cultivated photoautotrophically in bubble column photobioreactors under different CO2 concentrations (ranging from 2% to 10%) and aeration rates (ranging from 0.1 to 0.7vvm). Results showed that the maximum RCO2 (2.22gL−1d−1) was obtained by using 6.5% CO2 and 0.5vvm after 7days of cultivation at 30°C. Although final biomass concentration and maximum biomass productivity of microalgae were affected by the different cultivation conditions, no significant differences were obtained in the biochemical composition of microalgal cells for the evaluated levels of aeration and CO2. The present study demonstrated that optimization of microalgal cultivation conditions can be considered a useful strategy for maximizing CO2 bio-mitigation by C. vulgaris. Biofixation of CO2 by microalgae has been recognized as an attractive approach to CO2 mitigation. The main objective of this work was to maximize the rate of CO2 fixation ( [Formula: see text] ) by the green microalga Chlorella vulgaris P12 cultivated photoautotrophically in bubble column photobioreactors under different CO2 concentrations (ranging from 2% to 10%) and aeration rates (ranging from 0.1 to 0.7 vvm). Results showed that the maximum [Formula: see text] (2.22 gL(-1)d(-1)) was obtained by using 6.5% CO2 and 0.5 vvm after 7 days of cultivation at 30°C. Although final biomass concentration and maximum biomass productivity of microalgae were affected by the different cultivation conditions, no significant differences were obtained in the biochemical composition of microalgal cells for the evaluated levels of aeration and CO2. The present study demonstrated that optimization of microalgal cultivation conditions can be considered a useful strategy for maximizing CO2 bio-mitigation by C. vulgaris.Biofixation of CO2 by microalgae has been recognized as an attractive approach to CO2 mitigation. The main objective of this work was to maximize the rate of CO2 fixation ( [Formula: see text] ) by the green microalga Chlorella vulgaris P12 cultivated photoautotrophically in bubble column photobioreactors under different CO2 concentrations (ranging from 2% to 10%) and aeration rates (ranging from 0.1 to 0.7 vvm). Results showed that the maximum [Formula: see text] (2.22 gL(-1)d(-1)) was obtained by using 6.5% CO2 and 0.5 vvm after 7 days of cultivation at 30°C. Although final biomass concentration and maximum biomass productivity of microalgae were affected by the different cultivation conditions, no significant differences were obtained in the biochemical composition of microalgal cells for the evaluated levels of aeration and CO2. The present study demonstrated that optimization of microalgal cultivation conditions can be considered a useful strategy for maximizing CO2 bio-mitigation by C. vulgaris. Biofixation of CO2 by microalgae has been recognized as an attractive approach to CO2 mitigation. The main objective of this work was to maximize the rate of CO2 fixation (RCO2RCO2) by the green microalga Chlorella vulgaris P12 cultivated photoautotrophically in bubble column photobioreactors under different CO2 concentrations (ranging from 2% to 10%) and aeration rates (ranging from 0.1 to 0.7 vvm). Results showed that the maximum RCO2RCO2 (2.22 g L-1 d-1) was obtained by using 6.5% CO2 and 0.5 vvm after 7 days of cultivation at 30 degree C. Although final biomass concentration and maximum biomass productivity of microalgae were affected by the different cultivation conditions, no significant differences were obtained in the biochemical composition of microalgal cells for the evaluated levels of aeration and CO2. The present study demonstrated that optimization of microalgal cultivation conditions can be considered a useful strategy for maximizing CO2 bio-mitigation by C. vulgaris. Biofixation of CO2 by microalgae has been recognized as an attractive approach to CO2 mitigation. The main objective of this work was to maximize the rate of CO2 fixation (RCO2) by the green microalga Chlorella vulgaris P12 cultivated photoautotrophically in bubble column photobioreactors under different CO2 concentrations (ranging from 2% to 10%) and aeration rates (ranging from 0.1 to 0.7vvm). Results showed that the maximum RCO2 (2.22gL−1d−1) was obtained by using 6.5% CO2 and 0.5vvm after 7days of cultivation at 30°C. Although final biomass concentration and maximum biomass productivity of microalgae were affected by the different cultivation conditions, no significant differences were obtained in the biochemical composition of microalgal cells for the evaluated levels of aeration and CO2. The present study demonstrated that optimization of microalgal cultivation conditions can be considered a useful strategy for maximizing CO2 bio-mitigation by C. vulgaris.
Author	Fernandes, Bruno D. Dragone, Giuliano Teixeira, José A. Vicente, António A. Anjos, Mariana
Author_xml	– sequence: 1 givenname: Mariana surname: Anjos fullname: Anjos, Mariana – sequence: 2 givenname: Bruno D. surname: Fernandes fullname: Fernandes, Bruno D. – sequence: 3 givenname: António A. surname: Vicente fullname: Vicente, António A. – sequence: 4 givenname: José A. surname: Teixeira fullname: Teixeira, José A. – sequence: 5 givenname: Giuliano surname: Dragone fullname: Dragone, Giuliano email: gdragone@deb.uminho.pt, giulianodragone@outlook.com
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Keywords	Carbon dioxide sequestration Microalgae Aeration rate Biological mitigation Photobioreactors Algae Chlorella vulgaris Carbon dioxide CO2 sequestration Biology Chlorophyceae Optimization Aeration Chlorophyta Photobioreactor Mitigation measure Alga Microorganism
Language	English
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Snippet	•CO2 fixation rate by Chlorella vulgaris was optimized.•Growth parameters were affected by CO2 concentration and aeration rate.•Biochemical composition of... Biofixation of CO2 by microalgae has been recognized as an attractive approach to CO2 mitigation. The main objective of this work was to maximize the rate of...
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SubjectTerms	Aeration Aeration rate Aerobiosis Aerobiosis - drug effects Biochemistry Biodegradation, Environmental Biodegradation, Environmental - drug effects Biological and medical sciences Biological mitigation Biomass bioreactors bubbles Carbon Cycle Carbon Cycle - drug effects Carbon Dioxide Carbon Dioxide - metabolism Carbon Dioxide - pharmacology Carbon dioxide sequestration chemical composition Chlorella vulgaris Chlorella vulgaris - drug effects Chlorella vulgaris - growth & development Chlorella vulgaris - metabolism Cultivation drug effects Fundamental and applied biological sciences. Psychology growth & development Lipid Metabolism Lipid Metabolism - drug effects metabolism Microalgae microbiology Optimization pharmacology Photobioreactors Photobioreactors - microbiology Proteins Proteins - metabolism risk reduction Starch Starch - metabolism Strategy
Title	Optimization of CO2 bio-mitigation by Chlorella vulgaris
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