Review of advances in biological CO2 mitigation technology

Lee, Jin-Suk; Lee, Joon-Pyo

doi:10.1007/bf02949279

Cited by 96 publications

(36 citation statements)

References 38 publications

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“…[3,[12][13][14][15]. The utilisation of CO 2 into value added products would reduce the sequestration cost [16]. Therefore, a successful strategy of CO 2 bio-mitigation by microalgae would depend on identifying the microalgae which tolerate higher levels of CO 2 , exhibit higher biomass productivity with potential for value added products and/or high lipid content for production of biodiesel.…”

Section: Introductionmentioning

confidence: 99%

The effect of carbon dioxide rich environment on carbonic anhydrase activity, growth and metabolite production in indigenous freshwater microalgae

et al. 2015

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Section: Introductionmentioning

confidence: 99%

The effect of carbon dioxide rich environment on carbonic anhydrase activity, growth and metabolite production in indigenous freshwater microalgae

et al. 2015

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“…Moreover, these species can be grown well under the natural light-dark cycle and are suitable for large scale outdoor cultivation systems [15]. Since, industrial exhaust gases containing 10.0-20.0% CO 2 , these algae species are not inhibited by CO 2 with 50 ppm, but it can be inhibited by CO 2 when nitrogen oxides (NOx) is present [16]. However, few microalgae species grow well and achieve high CO 2 ), under a relative high tolerance either for temperature or CO 2 level [17].…”

Section: Introductionmentioning

confidence: 99%

Lipid Induction in Dunaliella salina Culture Aerated with Various Levels CO2 and Its Biodiesel Production

Bouaid¹

2014

J Aquac Res Development

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“…The use of photoautotrophic microorganisms is one promising option to mitigate CO 2 emission (Brown 1996;Benemann 1997;Hughes and Benemann 1997;Lee and Lee 2003;Stewart and Hessami 2005). This approach leads to a threefold benefit.…”

Section: Discussionmentioning

confidence: 99%

Cultivation of Chlorella emersonii with flue gas derived from a cement plant

et al. 2010

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The present study reviews the options of cultivating the green alga, Chlorella emersonii, under photoautotrophic conditions with flue gas derived from a cement plant. It was conducted in the Lafarge Perlmooser plant in Retznei, Austria, where stone coal and various surrogate fuels such as used tyres, plastics and meat-and-bone meal are incinerated for heating limestone. During 30 days of cultivation, flue gas had no visible adverse effects compared to the controls grown with pure CO 2 . The semi-continuous cultivation with media recycling was performed in 5.5-L pH-stat photobioreactors. The essay using CO 2 from flue gas yielded a total of 2.00 g L −1 microalgal dry mass and a CO 2 fixation of 3.25 g L −1 . In the control, a total of 2.06 g L −1 dry mass was produced and 3.38 g L −1 CO 2 was fixed. Mean growth rates were between 0.10 day −1 (control) and 0.13 day −1 (flue gas). No accumulation of flue gas residues was detected in the culture medium. At the end of the experiment, however, the concentration of lead was three times higher in algal biomass compared to the control, indicating that cultures aerated with this type of flue gas should not be used as food supplements or animal feed.

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Review of advances in biological CO2 mitigation technology

Cited by 96 publications

References 38 publications

The effect of carbon dioxide rich environment on carbonic anhydrase activity, growth and metabolite production in indigenous freshwater microalgae

The effect of carbon dioxide rich environment on carbonic anhydrase activity, growth and metabolite production in indigenous freshwater microalgae

Lipid Induction in Dunaliella salina Culture Aerated with Various Levels CO2 and Its Biodiesel Production

Cultivation of Chlorella emersonii with flue gas derived from a cement plant

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