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Acetone production with metabolically engineered strains of Acetobacterium woodii

Expected depletion of oil and fossil resources urges the development of new alternative routes for the production of bulk chemicals and fuels beyond petroleum resources. In this study, the clostridial acetone pathway was used for the formation of acetone in the acetogenic bacterium Acetobacterium wo...

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Published in:Metabolic engineering 2016-07, Vol.36, p.37-47
Main Authors: Hoffmeister, Sabrina, Gerdom, Marzena, Bengelsdorf, Frank R., Linder, Sonja, Flüchter, Sebastian, Öztürk, Hatice, Blümke, Wilfried, May, Antje, Fischer, Ralf-Jörg, Bahl, Hubert, Dürre, Peter
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container_start_page 37
container_title Metabolic engineering
container_volume 36
creator Hoffmeister, Sabrina
Gerdom, Marzena
Bengelsdorf, Frank R.
Linder, Sonja
Flüchter, Sebastian
Öztürk, Hatice
Blümke, Wilfried
May, Antje
Fischer, Ralf-Jörg
Bahl, Hubert
Dürre, Peter
description Expected depletion of oil and fossil resources urges the development of new alternative routes for the production of bulk chemicals and fuels beyond petroleum resources. In this study, the clostridial acetone pathway was used for the formation of acetone in the acetogenic bacterium Acetobacterium woodii. The acetone production operon (APO) containing the genes thlA (encoding thiolase A), ctfA/ctfB (encoding CoA transferase), and adc (encoding acetoacetate decarboxylase) from Clostridium acetobutylicum were cloned under the control of the thlA promoter into four vectors having different replicons for Gram-positives (pIP404, pBP1, pCB102, and pCD6). Stable replication was observed for all constructs. A. woodii [pJIR_actthlA] achieved the maximal acetone concentration under autotrophic conditions (15.2±3.4mM). Promoter sequences of the genes ackA from A. woodii and pta-ack from C. ljungdahlii were determined by primer extension (PEX) and cloned upstream of the APO. The highest acetone production in recombinant A. woodii cells was achieved using the promoters PthlA and Ppta-ack. Batch fermentations using A. woodii [pMTL84151_actthlA] in a bioreactor revealed that acetate concentration had an effect on the acetone production, due to the high Km value of the CoA transferase. In order to establish consistent acetate concentration within the bioreactor and to increase biomass, a continuous fermentation process for A. woodii was developed. Thus, acetone productivity of the strain A. woodii [pMTL84151_actthlA] was increased from 1.2mgL−1h−1 in bottle fermentation to 26.4mgL−1h−1 in continuous gas fermentation. •Acetone production from CO2 is possible by recombinant Acetobacterium woodii.•6 different acetone producing recombinant A. woodii strains were constructed.•DNA sequence of 2 promoters from acetogens were determined using PEX analysis.•3 plasmid replicons were identified that are suitable for replication in A. woodii.•Continuous gas fermentation increased acetone productivity up to 26.4mgL−1h−1.
doi_str_mv 10.1016/j.ymben.2016.03.001
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1096-7184
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subjects Acetates - metabolism
Acetobacterium - physiology
Acetobacterium woodii
Acetone
Acetone - isolation & purification
Acetone - metabolism
Biosynthetic Pathways - physiology
Carbon dioxide
Carbon Dioxide - metabolism
CoA transferase
Continuous gas fermentation
Genetic Enhancement - methods
Metabolic Engineering - methods
Metabolic Networks and Pathways - physiology
Recombinant Proteins - genetics
Recombinant Proteins - metabolism
Replicon for Gram-positives
Syngas
title Acetone production with metabolically engineered strains of Acetobacterium woodii
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