Microbial Consortia for Hydrogen Production Enhancement

Ten efficient hydrogen-producing strains affiliated to the Clostridium genus were used to develop consortia for hydrogen production. In order to determine their saccharolytic and proteolytic activities, glucose and meat extract were tested as fermentation substrates, and the best hydrogen-producing...

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Veröffentlicht in:Current microbiology 2013-07, Vol.67 (1), p.30-35
Hauptverfasser: Rajhi, Haifa, Díaz, Emiliano E, Rojas, Patricia, Sanz, José L
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creator Rajhi, Haifa
Díaz, Emiliano E
Rojas, Patricia
Sanz, José L
description Ten efficient hydrogen-producing strains affiliated to the Clostridium genus were used to develop consortia for hydrogen production. In order to determine their saccharolytic and proteolytic activities, glucose and meat extract were tested as fermentation substrates, and the best hydrogen-producing strains were selected. The C. roseum H5 (glucose-consuming) and C. butyricum R4 (protein-degrading) co-culture was the best hydrogen-producing co-culture. The end-fermentation products for the axenic cultures and co-cultures were analyzed. In all cases, organic acids, mainly butyrate and acetate, were produced lowering the pH and thus inhibiting further hydrogen production. In order to replace the need for reducing agents for the anaerobic growth of clostridia, a microbial consortium including Clostridium spp. and an oxygen-consuming microorganism able to form dense granules (Streptomyces sp.) was created. Increased yields of hydrogen were achieved. The effect of adding a butyrate-degrading bacteria and an acetate-consuming archaea to the consortia was also studied.
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subjects acetates
Acetic acid
Anaerobiosis
Archaea
Bacteria
Biodegradation
Biomedical and Life Sciences
Biotechnology
Carboxylic Acids - metabolism
Clostridium
Clostridium - growth & development
Clostridium - metabolism
coculture
Culture Media - chemistry
Fermentation
glucose
Glucose - metabolism
granules
Hydrogen
Hydrogen - metabolism
Hydrogen production
Hydrogen-Ion Concentration
Life Sciences
meat extracts
Microbial Consortia
Microbiology
Organic acids
organic acids and salts
Peptones - metabolism
proteolysis
reducing agents
Streptomyces
title Microbial Consortia for Hydrogen Production Enhancement
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