Hydrogen production using Clostridium saccharoperbutylacetonicum N1-4 (ATCC 13564)

Alalayah, Walid M.; Kalil, Mohd Sahaid; Kadhum, Abdul Amir H.; Jahim, Jamaliah Md; Alauj, Najeeb M.

doi:10.1016/j.ijhydene.2008.09.066

Cited by 43 publications

(29 citation statements)

References 27 publications

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“…The yields achieved i.e. about 1 mol H 2 per mole glucose consumed are lower than those mentioned by other authors (Alalayah et al, 2008;Baghchehsaraee et al, 2010;Lin et al, 2007;Pattra et al, 2008). This trend is related to the environmental parameters in the culture medium that are largely affected by either the initial pH and buffer concentration or by the H 2 partial pressure (Das & Veziroglu, 2008).…”

Section: Validation Of the Biogas Monitoring Methodsmentioning

confidence: 52%

“…in our experiments about 3 pH unit and 2 bars. Therefore, our culture conditions are more restrictive compared to the culture conditions usually used in other small vessels experiments with higher volumetric gas to liquid ratio (Alalayah et al, 2008;Baghchehsaraee et al, 2010;Lin et al, 2007;Pattra et al, 2008). However the yields reported in this paper are comparable Table 1, the mass balance (MB) of glucose conversion into soluble metabolites is similar to each inoculum and limited to 77 ± 5%.…”

Section: Validation Of the Biogas Monitoring Methodsmentioning

confidence: 99%

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Comparative study of biological hydrogen production by pure strains and consortia of facultative and strict anaerobic bacteria

Hiligsmann

Masset

Hamilton

et al. 2011

Bioresource Technology

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In this paper, a simple and rapid method was developed in order to assess in comparative tests the production of binary biogas mixtures containing CO 2 and another gaseous compound such as hydrogen or methane. This method was validated and experimented for the characterisation of the biochemical hydrogen potential of different pure strains and mixed cultures of hydrogen-producing bacteria (HPB) growing on glucose.The experimental results compared the hydrogen production yield of 19 different pure strains and sludges : facultative and strict anaerobic HPB strains along with anaerobic digester sludges thermally pre-treated or not. Significant yields variations were recorded even between different strains of the same species by i.e. about 20% for three Clostridium butyricum strains. The pure Clostridium butyricum and pasteurianum strains achieved the highest yields i.e. up to 1,36 mol H 2 /mol glucose compared to the yields achieved by the sludges and the tested Escherichia and Citrobacter strains.

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Section: Validation Of the Biogas Monitoring Methodsmentioning

confidence: 52%

Section: Validation Of the Biogas Monitoring Methodsmentioning

confidence: 99%

Comparative study of biological hydrogen production by pure strains and consortia of facultative and strict anaerobic bacteria

Hiligsmann

Masset

Hamilton

et al. 2011

Bioresource Technology

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“…Stable pH 6.0 was optimal for T. aciditolerans Trau DAt to grow and produce H 2 . Alalayah et al (2009) also reported that the maximum rate of hydrogen production of Clostridium saccharoperbutylacotonicum N1-4 was measured at pH 6.0 while the min rate of hydrogen production was recorded at pH 4.0 [1]. -1 , with 10% inoculums (v/v), initial pH at 6.5 and then pH was automatically controlled at 6.0 during fermentative process.…”

Section: Biohydrogen Production By Dark Fermentation Under Suitable Cmentioning

confidence: 99%

“…pH is one of the most important factors in hydrogen production due to its effects on FeFehydrogenase activity, metabolic pathways, and the duration of lag phase. Hydrogen fermentation processes produce by-product, which reduce pH of culture media [1,7]. Khanal et al (2004) reported that low pH values of 4.0-4.5 cause longer lag period.…”

Section: Biohydrogen Production By Dark Fermentation Under Suitable Cmentioning

confidence: 99%

“…On the other hand, fermentative bacteria represent a promising means not only to reclaim energy from wastes in the form of hydrogen but also to utilize the wastes as sources. In addition, the dark fermentation using fermentative bacteria has many advantages: (1) It can produce H 2 all day long without light; (2) A variety of carbon sources can be used as substrates even biomass; (3) It produces valuable metabolites such as butyric, lactic and acetic acids as by products; (4) It is anaerobic process, so there is no O 2 . Thus, the dark fermentation for hydrogen production is the best choice for commercial biohydrogen production [1,4,5,9,12,14,20,23].…”

Section: Introductionmentioning

confidence: 99%

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Fermentative biohydrogen production by anaerobic, Thermophilic bacterium thermoanaerobacterium aciditolerans Trau DAt isoalted from Vietnam

Yến¹,

Hien²,

Huyền³

2015

V J Bio

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Thermoanaerobacterium aciditolerans bacterium Trau DAt isolated in Vietnam had the hydrogen production capability under the anaerobic condition at 55 o C. Using glucose, the dark fermentation of strain Trau DAt for hydrogen production was performed in three different scales: the flask scales under the suitable (1) and optimal (2) conditions, and the automatic fermentor system Bio-Flo 110 (3). Under the suitable condition, the strain Trau DAt produced 330 ml volume total gas (L-1) and hydrogen occupied 42.95% of gas total. Under the optimal condition, the maximum volume total gas of 701 ml (L-1) was obtained and hydrogen occupied of 77.2% total volume gas. Based on results of RSM analysis and pH controlled examination, the dark fermentation of strain Trau DAt was performed under automatic fermentor system scale (Bio-Flo 110). 2.64 L total gas (L-1) was obtained by consuming 92.58% glucose and hydrogen volume occupied 94.85% of gas total. The maximum hydrogen yield of strain Trau DAt was 1.63 mol H2 (mol glucose)-1. Obtained results showed the remarkable potentiality of Trau DAt strain in application to the larger fermentation scale for biohydrogen production in Vietnam.

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Sustainable production of biofuels using different microbial consortia: the state of the art

Medina,

Bolaños,

Magalhães

et al. 2024

Biofuels Bioprod Bioref

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Population growth has generated an enormous increase in demand for energy and chemicals to supply goods and services and to maintain quality of life. Oil, coal, and natural gas are the primary sources of the chemicals and energy that directly impact the economy. However, the reserves of these resources are continuously reducing. New alternatives have emerged, including biotechnological tools such as microbial consortia (MC) to produce biofuels, chemicals such as organic acids, and processed foods. The diversity of MC as a biotechnological tool allows it to be used in complex substrates, opening the possibility of using other solid waste to implement consolidated bioprocesses (CPs). This review presents an overview of the uses of MC and CP for producing biofuels using different feedstocks.

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Hydrogen production using Clostridium saccharoperbutylacetonicum N1-4 (ATCC 13564)

Cited by 43 publications

References 27 publications

Comparative study of biological hydrogen production by pure strains and consortia of facultative and strict anaerobic bacteria

Comparative study of biological hydrogen production by pure strains and consortia of facultative and strict anaerobic bacteria

Fermentative biohydrogen production by anaerobic, Thermophilic bacterium thermoanaerobacterium aciditolerans Trau DAt isoalted from Vietnam

Sustainable production of biofuels using different microbial consortia: the state of the art

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