Biobutanol as a promising liquid fuel for the future - recent updates and perspectives

Arivalagan Pugazhendhi, Thangavel Mathimani, Sunita Varjani, Eldon R. Rene, Gopalakrishnan Kumar, Sang Hyoun Kim, Vinoth Kumar Ponnusamy, Jeong Jun Yoon

Research output: Contribution to journalArticle

4 Citations (Scopus)

Abstract

Butanol is a potential alternative fuel for compensating the depletion of fossil based liquid fuels. Butanol can be easily mixed with either gas or petrol, at any percentage and used as a fuel. Clostridia are the main fermentative organisms used for the production of biobutanol. They are potentially known for their capacity to ferment different types of renewable biomass to butanol through the acetone-butanol-ethanol (ABE) fermentation pathway. This review deals with the mechanism of biobutanol production from biomass feedstocks and the issues and challenges involved in the production of biobutanol. The different types of anaerobic biobutanol production namely fed-batch fermentation, continuous fermentation, and two-stage continuous fermentation have been clearly enunciated. Further, different butanol recovery methods such as adsorption, gas stripping and pervaporation have also been discussed in this review. Certain issues affecting the biobutanol production such as sporulation and solventogenesis have been summarized. These types of problems could be overcome by metabolic engineering of Clostridia, which will enhance the resistance of the microorganisms towards high solvent concentrations and thereby increasing the solvent production. The genetic engineering approach is able to overcome the constraints with wild-type strain by understanding the process of solventogenesis in order to construct or modify the strains with improved downstream processing potential for economically advantageous biobutanol production.

Original languageEnglish
Pages (from-to)637-646
Number of pages10
JournalFuel
Volume253
DOIs
Publication statusPublished - 2019 Oct 1

Fingerprint

Liquid fuels
Butanols
Butenes
Fermentation
Clostridium
Biomass
Metabolic engineering
Genetic engineering
Gas adsorption
Pervaporation
Alternative fuels
Acetone
Microorganisms
Feedstocks
Ethanol
Gases
Recovery
Processing

All Science Journal Classification (ASJC) codes

  • Chemical Engineering(all)
  • Fuel Technology
  • Energy Engineering and Power Technology
  • Organic Chemistry

Cite this

Pugazhendhi, Arivalagan ; Mathimani, Thangavel ; Varjani, Sunita ; Rene, Eldon R. ; Kumar, Gopalakrishnan ; Kim, Sang Hyoun ; Ponnusamy, Vinoth Kumar ; Yoon, Jeong Jun. / Biobutanol as a promising liquid fuel for the future - recent updates and perspectives. In: Fuel. 2019 ; Vol. 253. pp. 637-646.
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abstract = "Butanol is a potential alternative fuel for compensating the depletion of fossil based liquid fuels. Butanol can be easily mixed with either gas or petrol, at any percentage and used as a fuel. Clostridia are the main fermentative organisms used for the production of biobutanol. They are potentially known for their capacity to ferment different types of renewable biomass to butanol through the acetone-butanol-ethanol (ABE) fermentation pathway. This review deals with the mechanism of biobutanol production from biomass feedstocks and the issues and challenges involved in the production of biobutanol. The different types of anaerobic biobutanol production namely fed-batch fermentation, continuous fermentation, and two-stage continuous fermentation have been clearly enunciated. Further, different butanol recovery methods such as adsorption, gas stripping and pervaporation have also been discussed in this review. Certain issues affecting the biobutanol production such as sporulation and solventogenesis have been summarized. These types of problems could be overcome by metabolic engineering of Clostridia, which will enhance the resistance of the microorganisms towards high solvent concentrations and thereby increasing the solvent production. The genetic engineering approach is able to overcome the constraints with wild-type strain by understanding the process of solventogenesis in order to construct or modify the strains with improved downstream processing potential for economically advantageous biobutanol production.",
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Pugazhendhi, A, Mathimani, T, Varjani, S, Rene, ER, Kumar, G, Kim, SH, Ponnusamy, VK & Yoon, JJ 2019, 'Biobutanol as a promising liquid fuel for the future - recent updates and perspectives', Fuel, vol. 253, pp. 637-646. https://doi.org/10.1016/j.fuel.2019.04.139

Biobutanol as a promising liquid fuel for the future - recent updates and perspectives. / Pugazhendhi, Arivalagan; Mathimani, Thangavel; Varjani, Sunita; Rene, Eldon R.; Kumar, Gopalakrishnan; Kim, Sang Hyoun; Ponnusamy, Vinoth Kumar; Yoon, Jeong Jun.

In: Fuel, Vol. 253, 01.10.2019, p. 637-646.

Research output: Contribution to journalArticle

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AU - Pugazhendhi, Arivalagan

AU - Mathimani, Thangavel

AU - Varjani, Sunita

AU - Rene, Eldon R.

AU - Kumar, Gopalakrishnan

AU - Kim, Sang Hyoun

AU - Ponnusamy, Vinoth Kumar

AU - Yoon, Jeong Jun

PY - 2019/10/1

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AB - Butanol is a potential alternative fuel for compensating the depletion of fossil based liquid fuels. Butanol can be easily mixed with either gas or petrol, at any percentage and used as a fuel. Clostridia are the main fermentative organisms used for the production of biobutanol. They are potentially known for their capacity to ferment different types of renewable biomass to butanol through the acetone-butanol-ethanol (ABE) fermentation pathway. This review deals with the mechanism of biobutanol production from biomass feedstocks and the issues and challenges involved in the production of biobutanol. The different types of anaerobic biobutanol production namely fed-batch fermentation, continuous fermentation, and two-stage continuous fermentation have been clearly enunciated. Further, different butanol recovery methods such as adsorption, gas stripping and pervaporation have also been discussed in this review. Certain issues affecting the biobutanol production such as sporulation and solventogenesis have been summarized. These types of problems could be overcome by metabolic engineering of Clostridia, which will enhance the resistance of the microorganisms towards high solvent concentrations and thereby increasing the solvent production. The genetic engineering approach is able to overcome the constraints with wild-type strain by understanding the process of solventogenesis in order to construct or modify the strains with improved downstream processing potential for economically advantageous biobutanol production.

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