Fine Bubble‐based CO2 Capture Mediated by Triethanolamine Coupled to Whole Cell Biotransformation

Carbon capture technology can be set up in combination with biocatalysis to utilize the bound CO2 as substrate in the Kolbe‐Schmitt like enzymatic reaction. The exemplary whole cell biotransformation of catechol to 2,3‐dihydroxybenzoic acid in a triethanolamine‐mediated multiphase system shows incre...

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Veröffentlicht in:Chemie ingenieur technik 2019-12, Vol.91 (12), p.1822-1826
Hauptverfasser: Ohde, Daniel, Thomas, Benjamin, Matthes, Simon, Percin, Zeynep, Engelmann, Claudia, Bubenheim, Paul, Terasaka, Koichi, Schlüter, Michael, Liese, Andreas
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container_end_page 1826
container_issue 12
container_start_page 1822
container_title Chemie ingenieur technik
container_volume 91
creator Ohde, Daniel
Thomas, Benjamin
Matthes, Simon
Percin, Zeynep
Engelmann, Claudia
Bubenheim, Paul
Terasaka, Koichi
Schlüter, Michael
Liese, Andreas
description Carbon capture technology can be set up in combination with biocatalysis to utilize the bound CO2 as substrate in the Kolbe‐Schmitt like enzymatic reaction. The exemplary whole cell biotransformation of catechol to 2,3‐dihydroxybenzoic acid in a triethanolamine‐mediated multiphase system shows increased equilibrium conversion. Apart from the beneficial thermodynamics, the inherent fluid properties of triethanolamine is enabling easy application of CO2 fine bubbles as highly efficient gassing method to minimize the CO2 demand and CO2 emissions. Biocatalytic carboxylation reactions can be combined with the amine‐mediated system, which utilizes CO2 as feedstock in the production of high valuable benzoic acid derivatives. The application of fine bubbles for a more efficient gassing and the yield optimization are examined for different CO2 loadings by variation of triethanolamine content.
doi_str_mv 10.1002/cite.201900113
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subjects Carbon capture
Fine bubble aeration
Multiphase systems
Triethanolamine‐mediated carboxylation
Whole cell biotransformation
title Fine Bubble‐based CO2 Capture Mediated by Triethanolamine Coupled to Whole Cell Biotransformation
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