Reviewing the potential of bio-hydrogen production by fermentation

Hydrogen is a common reactant in the petro-chemical industry and moreover recognized as a potential fuel within the next 20 years. The production of hydrogen from biomass and carbohydrate feedstock, though undoubtedly desirable and favored, is still at the level of laboratory or pilot scale. The pre...

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Veröffentlicht in:Renewable & sustainable energy reviews 2020-10, Vol.131, p.110023, Article 110023
Hauptverfasser: Baeyens, Jan, Zhang, Huili, Nie, Jiapei, Appels, Lise, Dewil, Raf, Ansart, Renaud, Deng, Yimin
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container_issue
container_start_page 110023
container_title Renewable & sustainable energy reviews
container_volume 131
creator Baeyens, Jan
Zhang, Huili
Nie, Jiapei
Appels, Lise
Dewil, Raf
Ansart, Renaud
Deng, Yimin
description Hydrogen is a common reactant in the petro-chemical industry and moreover recognized as a potential fuel within the next 20 years. The production of hydrogen from biomass and carbohydrate feedstock, though undoubtedly desirable and favored, is still at the level of laboratory or pilot scale. The present work reviews the current researched pathways. Different types of carbohydrates, and waste biomass are identified as feedstock for the fermentative bio-hydrogen production. Although all techniques suffer from drawbacks of a low H2 yield and the production of a liquid waste stream rich in VFAs that needs further treatment, the technical advances foster the commercial utilization. Bacterial strains capable of high hydrogen yield are assessed, together with advanced techniques of co-culture fermentation and metabolic engineering. Residual VFAs can be converted. The review provides an insight on how fermentation can be conducted for a wide spectrum of feedstock and how fermentation effluent can be valorized by integrating fermentation with other systems, leading to an improved industrial potential of the technique. To boost the fermentation potential, additional research should firstly target its demonstration on pilot or industrial scale to prove the process efficiency, production costs and method reliability. It should secondly focus on optimizing the micro-organism functionality, and should finally develop and demonstrate a viable valorization of the residual VFA-rich waste streams. •Hydrogen is a common reactant in the chemical industry and a potential fuel.•Review of the current researched fermentation bio-hydrogen pathways.•New developments (e.g. metabolic engineering, H2 separation) are assessed.•Fermentation has low H2 production yields. The fermentation effluent, rich in VFAs, needs further treatment.
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subjects Biochemical
Chemical engineering
Chemical Sciences
Fermentation
Hydrogen
Hydrogen recovery
Pathways
Production
Volatile fatty acids
title Reviewing the potential of bio-hydrogen production by fermentation
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