Long-term H2 photoproduction from starch by co-culture of Clostridium butyricum and Rhodobacter sphaeroides in a repeated batch process

Laurinavichene, Tatyana V.; Laurinavichius, Kestutis S.; Shastik, Evgeny; Tsygankov, Anatoly A.

doi:10.1007/s10529-017-2486-z

Cited by 17 publications

(4 citation statements)

References 15 publications

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“…The co-culture system operates in harmony, ensuring process stability and superior performance compared to monocultures. It has successfully addressed the limitations of axenic cultures, offering economic and methodological advantages over enzymatically hydrolyzed cellulose by eliminating the need for reductants during the fermentation process [217]. It is worth noting that the co-fermentation of seaweeds with other feedstocks is a relatively unexplored area that demands in-depth research and exploration.…”

Section: Co-fermentationmentioning

confidence: 99%

Exploring the Prospects of Fermenting/Co-Fermenting Marine Biomass for Enhanced Bioethanol Production

Osman,

Abo-Shady,

Elshobary

et al. 2023

Fermentation

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With the rising demands for renewable fuels, there is growing interest in utilizing abundant and sustainable non-edible biomass as a feedstock for bioethanol production. Macroalgal biomass contains a high content of carbohydrates in the form of special polysaccharides like alginate, agar, and carrageenan that can be converted to fermentable sugars. In addition, using seagrass as a feedstock for bioethanol production can provide a sustainable and renewable energy source while addressing environmental concerns. It is a resource-rich plant that offers several advantages for bioethanol production, including its high cellulose content, rapid growth rates, and abundance in coastal regions. To reduce sugar content and support efficient microbial fermentation, co-fermentation of macroalgae with seagrass (marine biomass) can provide complementary sugars and nutrients to improve process yields and economics. This review comprehensively covers the current status and future potential of fermenting macroalgal biomass and seagrass, as well as possible combinations for maximizing bioethanol production from non-edible energy crops. An overview is provided on the biochemical composition of macroalgae and seagrass, pretreatment methods, hydrolysis, and fermentation processes. Key technical challenges and strategies to achieve balanced co-substrate fermentation are discussed. The feasibility of consolidated bioprocessing to directly convert mixed feedstocks to ethanol is also evaluated. Based on current research, macroalgae-seagrass co-fermentation shows good potential to improve the bioethanol yields, lower the cost, and enable more optimal utilization of diverse marine biomass resources compared to individual substrates.

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Section: Co-fermentationmentioning

confidence: 99%

Exploring the Prospects of Fermenting/Co-Fermenting Marine Biomass for Enhanced Bioethanol Production

Osman,

Abo-Shady,

Elshobary

et al. 2023

Fermentation

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“…Moreover, several studies on H 2 production by photosynthetic bacteria and bacteria co-cultures have been reported [50][51][52]. Kao [50][51][52].…”

Section: Manufacturing Of Biomoleculesmentioning

confidence: 99%

“…Moreover, several studies on H 2 production by photosynthetic bacteria and bacteria co-cultures have been reported [50][51][52]. Kao [50][51][52]. In the work of Hitit et al, the dark-and photo-fermentation processes were simultaneously carried out in a single-stage process by using co-cultures of Clostridium butyricum and Rhodopseudomonas palustris in order to enhance H 2 production [53].…”

Section: Manufacturing Of Biomoleculesmentioning

confidence: 99%

Photoautotrophs–Bacteria Co-Cultures: Advances, Challenges and Applications

et al. 2021

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Photosynthetic microorganisms are among the fundamental living organisms exploited for millennia in many industrial applications, including the food chain, thanks to their adaptable behavior and intrinsic proprieties. The great multipotency of these photoautotroph microorganisms has been described through their attitude to become biofarm for the production of value-added compounds to develop functional foods and personalized drugs. Furthermore, such biological systems demonstrated their potential for green energy production (e.g., biofuel and green nanomaterials). In particular, the exploitation of photoautotrophs represents a concrete biorefinery system toward sustainability, currently a highly sought-after concept at the industrial level and for the environmental protection. However, technical and economic issues have been highlighted in the literature, and in particular, challenges and limitations have been identified. In this context, a new perspective has been recently considered to offer solutions and advances for the biomanufacturing of photosynthetic materials: the co-culture of photoautotrophs and bacteria. The rational of this review is to describe the recently released information regarding this microbial consortium, analyzing the critical issues, the strengths and the next challenges to be faced for the intentions attainment.

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“…Further, they found hydrogen production by C. butyricum in co-culture with Rhodobacter sphaeroides N7 was retarded as compared to the mono-culture after 3 days (Laurinavichene and Tsygankov, 2015) and confirmed that a high yeast extract concentration (160-320 mg/L) enhanced reliable H 2 production . They used a repeated batch photofermentation utilizing starch with coculture of C. butyricum and R. sphaeroides N7 over 15 months to obtain efficient H 2 production with an average H 2 yield of 5.2 mol/mol glucose with no accumulation of organic acids in the presence of Clostridia (Laurinavichene et al, 2018). The highest hydrogen yield of 6.4 ± 1.3 mol/mol glucose was achieved upon optimization of the culture conditions using response surface methodology in the co-culture system of C. butyricum NRRLB1024 and Rhodospeudomonas palustris GCA009 (Hitit et al, 2017a).…”

Section: Hydrogen Productionmentioning

confidence: 99%

Advances and Applications of Clostridium Co-culture Systems in Biotechnology

Zou

Zhang

et al. 2020

Front. Microbiol.

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Clostridium spp. are important microorganisms that can degrade complex biomasses such as lignocellulose, which is a widespread and renewable natural resource. Co-culturing Clostridium spp. and other microorganisms is considered to be a promising strategy for utilizing renewable feed stocks and has been widely used in biotechnology to produce bio-fuels and bio-solvents. In this review, we summarize recent progress on the Clostridium co-culture system, including system unique advantages, composition, products, and interaction mechanisms. In addition, biochemical regulation and genetic modifications used to improve the Clostridium co-culture system are also summarized. Finally, future prospects for Clostridium co-culture systems are discussed in light of recent progress, challenges, and trends.

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Long-term H2 photoproduction from starch by co-culture of Clostridium butyricum and Rhodobacter sphaeroides in a repeated batch process

Abstract: The prolonged repeated batch photofermentation of starch by co-culture C. butyricum and R. sphaeroides provided efficient H production without accumulation of organic acids under conditions of Clostridia limitation.

Cited by 17 publications

References 15 publications

Exploring the Prospects of Fermenting/Co-Fermenting Marine Biomass for Enhanced Bioethanol Production

Exploring the Prospects of Fermenting/Co-Fermenting Marine Biomass for Enhanced Bioethanol Production

Photoautotrophs–Bacteria Co-Cultures: Advances, Challenges and Applications

Advances and Applications of Clostridium Co-culture Systems in Biotechnology

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