Feasibility of biohydrogen production from Gelidium amansii
The feasibility of hydrogen production from red algae was investigated. Galactose, the main sugar monomer of red algae, was readily converted to hydrogen by dark fermentation. The maximum hydrogen production rate and yield of galactose were 2.46 L H 2/g VSS/d and 2.03 mol H 2/mol galactose added, re...
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Published in: | International journal of hydrogen energy Vol. 36; no. 21; pp. 13997 - 14003 |
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01-10-2011
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Abstract | The feasibility of hydrogen production from red algae was investigated. Galactose, the main sugar monomer of red algae, was readily converted to hydrogen by dark fermentation. The maximum hydrogen production rate and yield of galactose were 2.46 L H
2/g VSS/d and 2.03 mol H
2/mol galactose
added, respectively, which were higher than those for glucose (0.914 L H
2/g VSS/d and 1.48 mol H
2/mol galactose
added). The distribution of soluble byproducts showed that H
2 production was the main pathway of galactose uptake. 5-HMF, the main byproduct of acid hydrolysis of red algae causes noncompetitive inhibition of H
2 fermentation. 1.37 g/L of 5-HMF decreased hydrogen production rate by 50% compared to the control. When red algae was hydrolyzed at 150 °C for 15 min and detoxified by activated carbon, 53.5 mL of H
2 was produced from 1 g of dry algae with a hydrogen production rate of 0.518 L H
2/g VSS/d. Red algae, cultivable on vast tracts of sea by sunlight without any nitrogen-based fertilizer, could be a suitable substrate for biohydrogen production.
► Red algae can be a suitable substrate for dark hydrogen fermentation. ► Galactose, the main monomer of red algae, is readily utilized for hydrogen production. ► The hydrogen production rate and yield of galactose are higher than those of glucose. ► When hydrolyzed and detoxified, 1 g of dry algae would be converted to 53.5 mL of hydrogen. |
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AbstractList | The feasibility of hydrogen production from red algae was investigated. Galactose, the main sugar monomer of red algae, was readily converted to hydrogen by dark fermentation. The maximum hydrogen production rate and yield of galactose were 2.46 L H
2/g VSS/d and 2.03 mol H
2/mol galactose
added, respectively, which were higher than those for glucose (0.914 L H
2/g VSS/d and 1.48 mol H
2/mol galactose
added). The distribution of soluble byproducts showed that H
2 production was the main pathway of galactose uptake. 5-HMF, the main byproduct of acid hydrolysis of red algae causes noncompetitive inhibition of H
2 fermentation. 1.37 g/L of 5-HMF decreased hydrogen production rate by 50% compared to the control. When red algae was hydrolyzed at 150 °C for 15 min and detoxified by activated carbon, 53.5 mL of H
2 was produced from 1 g of dry algae with a hydrogen production rate of 0.518 L H
2/g VSS/d. Red algae, cultivable on vast tracts of sea by sunlight without any nitrogen-based fertilizer, could be a suitable substrate for biohydrogen production.
► Red algae can be a suitable substrate for dark hydrogen fermentation. ► Galactose, the main monomer of red algae, is readily utilized for hydrogen production. ► The hydrogen production rate and yield of galactose are higher than those of glucose. ► When hydrolyzed and detoxified, 1 g of dry algae would be converted to 53.5 mL of hydrogen. The feasibility of hydrogen production from red algae was investigated. Galactose, the main sugar monomer of red algae, was readily converted to hydrogen by dark fermentation. The maximum hydrogen production rate and yield of galactose were 2.46 L H sub(2/g VSS/d and 2.03 mol H) sub(2)/mol galactose sub(added, respectively, which were higher than those for glucose (0.914 L H) sub(2)/g VSS/d and 1.48 mol H sub(2/mol galactose) sub(a)dded). The distribution of soluble byproducts showed that H sub(2 production was the main pathway of galactose uptake. 5-HMF, the main byproduct of acid hydrolysis of red algae causes noncompetitive inhibition of H) sub(2) fermentation. 1.37 g/L of 5-HMF decreased hydrogen production rate by 50% compared to the control. When red algae was hydrolyzed at 150 degree C for 15 min and detoxified by activated carbon, 53.5 mL of H sub(2 was produced from 1 g of dry algae with a hydrogen production rate of 0.518 L H) sub(2)/g VSS/d. Red algae, cultivable on vast tracts of sea by sunlight without any nitrogen-based fertilizer, could be a suitable substrate for biohydrogen production. |
Author | Lim, Dong Jung Kim, Yong Jin Park, Hee-Deung Park, Jeong-Hoon Yoon, Jeong-Jun Kim, Sang-Hyoun |
Author_xml | – sequence: 1 givenname: Jeong-Hoon surname: Park fullname: Park, Jeong-Hoon organization: Civil, Environmental and Architectural Engineering, Korea University, Anam-Dong, Seongbuk-gu, Seoul 136-714, South Korea – sequence: 2 givenname: Jeong-Jun surname: Yoon fullname: Yoon, Jeong-Jun organization: Eco Technology Center, Korea Institute of Industrial Technology, 35-3 Hongchon-ri, Ipjang-myun, Seobuk-gu, Chonan-si, Chungnam 330-825, South Korea – sequence: 3 givenname: Hee-Deung surname: Park fullname: Park, Hee-Deung organization: Civil, Environmental and Architectural Engineering, Korea University, Anam-Dong, Seongbuk-gu, Seoul 136-714, South Korea – sequence: 4 givenname: Yong Jin surname: Kim fullname: Kim, Yong Jin organization: Eco Technology Center, Korea Institute of Industrial Technology, 35-3 Hongchon-ri, Ipjang-myun, Seobuk-gu, Chonan-si, Chungnam 330-825, South Korea – sequence: 5 givenname: Dong Jung surname: Lim fullname: Lim, Dong Jung organization: Biolsystems Co. Ltd., Joong Pyung B/D 6F 64-1, Umyeon-dong, Seocho-gu, Seoul 137-900, South Korea – sequence: 6 givenname: Sang-Hyoun surname: Kim fullname: Kim, Sang-Hyoun email: sanghkim1@daegu.ac.kr organization: Department of Environmental Engineering, Daegu University, Jillyang, Gyeongsan, Gyeongbuk 712-714, South Korea |
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Keywords | Pretreatment Galactose Dark fermentation Red algae |
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SubjectTerms | Dark fermentation Galactose Gelidium amansii Pretreatment Red algae |
Title | Feasibility of biohydrogen production from Gelidium amansii |
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