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Enhancement of growth and biohydrogen production potential of Chlorella vulgaris MSU-AGM 14 by utilizing seaweed aqueous extract of Valoniopsis pachynema

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  • Lakshmikandan, M.
  • Murugesan, A.G.

Abstract

Chlorella vulgaris MSU-AGM 14 a freshwater green microalga exhibited photobiological hydrogen production by employing aqueous extract of green seaweed Valoniopsis pachynema. The microalga was isolated from the pond water followed by its screening to study the biohydrogen production capability at anaerobic and sulfur depletion conditions with 15 μmol photons m−2 s−1 light illumination. The aqueous extract (10–100%) of green seaweed V. pachynema served as carbon and nitrogen source for their active growth and biohydrogen production at varied concentrations. The optimizations of four individual variables (substrate concentration, temperature, pH and carbon dioxide) were examined by using Response Surface Methodology (RSM). The collected biohydrogen gas samples were analyzed quantitatively and qualitatively by using Gas Chromatography (GC). The 16S rRNA proved that the C. vulgaris MSU-AGM 14 has 609 bp fragment within the chloroplast genome of Chlorella Beijerinck genus. The optimized individual variables were obtained at a concentration of 22.5% of seaweed aqueous extract at a medium pH of 6.8, at a temperature of 32 °C with 5% carbon dioxide for active photobiological hydrogen production. Collectively, the results demonstrate that biohydrogen production in C. vulgaris MSU-AGM 14 were increased by employing aqueous extract of green seaweed Valoniopsis pachynema.

Suggested Citation

  • Lakshmikandan, M. & Murugesan, A.G., 2016. "Enhancement of growth and biohydrogen production potential of Chlorella vulgaris MSU-AGM 14 by utilizing seaweed aqueous extract of Valoniopsis pachynema," Renewable Energy, Elsevier, vol. 96(PA), pages 390-399.
  • Handle: RePEc:eee:renene:v:96:y:2016:i:pa:p:390-399
    DOI: 10.1016/j.renene.2016.04.097
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    References listed on IDEAS

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    1. Jack P. C. Kleijnen, 2015. "Response Surface Methodology," International Series in Operations Research & Management Science, in: Michael C Fu (ed.), Handbook of Simulation Optimization, edition 127, chapter 0, pages 81-104, Springer.
    2. Ngo, Tien Anh & Nguyen, Tra Huong & Bui, Ha Thi Viet, 2012. "Thermophilic fermentative hydrogen production from xylose by Thermotoga neapolitana DSM 4359," Renewable Energy, Elsevier, vol. 37(1), pages 174-179.
    3. Torre Ugarte, Daniel de la & Walsh, Marie E. & Shapouri, Hosein & Slinsky, Stephen P., 2003. "The Economic Impacts of Bioenergy Crop Production on U.S. Crop Production," Agricultural Economic Reports 33997, United States Department of Agriculture, Economic Research Service.
    4. Xia, Ao & Cheng, Jun & Ding, Lingkan & Lin, Richen & Song, Wenlu & Su, Huibo & Zhou, Junhu & Cen, Kefa, 2015. "Substrate consumption and hydrogen production via co-fermentation of monomers derived from carbohydrates and proteins in biomass wastes," Applied Energy, Elsevier, vol. 139(C), pages 9-16.
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    Cited by:

    1. Khan, Mohd Atiqueuzzaman & Ngo, Huu Hao & Guo, Wenshan & Liu, Yiwen & Zhang, Xinbo & Guo, Jianbo & Chang, Soon Woong & Nguyen, Dinh Duc & Wang, Jie, 2018. "Biohydrogen production from anaerobic digestion and its potential as renewable energy," Renewable Energy, Elsevier, vol. 129(PB), pages 754-768.
    2. Lakshmikandan, M. & Murugesan, A.G. & Wang, Shuang & El-Fatah Abomohra, Abd, 2021. "Optimization of acid hydrolysis on the green seaweed Valoniopsis pachynema and approach towards mixotrophic microalgal biomass and lipid production," Renewable Energy, Elsevier, vol. 164(C), pages 1052-1061.

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