TY - JOUR UR - http://lib.ugent.be/catalog/pug01:4405533 ID - pug01:4405533 LA - eng TI - Electrolytic membrane extraction enables production of fine chemicals from biorefinery sidestreams PY - 2014 JO - (2014) ENVIRONMENTAL SCIENCE & TECHNOLOGY SN - 0013-936X PB - 2014 AU - Andersen, Stephen 000111065404 802001220519 975908245950 0000-0002-3791-5787 AU - Hennebel, Tom LA25 002003611586 AU - Gildemyn, Sylvia LA25 000070279126 802001301957 0000-0003-2143-3502 AU - Coma, Marta 000130327277 802001353083 AU - Desloover, Joachim 002004437096 802000741276 AU - Berton, Jan LA24 000060418670 AU - Tsukamoto, Junko 802001271039 AU - Stevens, Christian AU - Rabaey, Korneel LA25 LA62 001995148843 801001551956 0000-0001-8738-7778 AB - Short-chain carboxylates such as acetate are easily produced through mixed culture fermentation of many biological waste streams, although routinely digested to biogas and combusted rather than harvested. We developed a pipeline to extract and upgrade short chain carboxylates to esters via membrane electrolysis and biphasic esterification. Carboxylate rich broths are electrolyzed in a cathodic chamber from which anions flux across an anion exchange membrane into an anodic chamber, resulting in a clean acid concentrate with neither solids nor biomass. Next, the aqueous carboxylic acid concentrate reacts with added alcohol in a water-excluding phase to generate volatile esters. In a batch extraction, 96 ± 1.6% of the total acetate was extracted in 48 h from bio-refinery thin stillage (5 g.L-1 acetate) at 379 g.m-2.d-1 (36 % Coulombic efficiency). With continuously regenerated thin-stillage, the anolyte was concentrated to 14 g.L-1 acetic acid, and converted at 2.64 g (acetate).L-1.h-1 in the first hour to ethyl acetate by the addition of excess ethanol and heating to 70°C, with a final total conversion of 58 ± 3%. This processing pipeline enables direct production of fine chemicals following undefined mixed culture fermentation, embedding carbon in industrial chemicals rather than returning them to the atmosphere as carbon dioxide. ER -Download RIS file
| 00000nam^a2200301^i^4500 | |||
| 001 | 4405533 | ||
| 005 | 20180813143300.0 | ||
| 008 | 140602s2014------------------------eng-- | ||
| 022 | a 0013-936X | ||
| 024 | a 000337646000074 2 wos | ||
| 024 | a 1854/LU-4405533 2 handle | ||
| 024 | a 10.1021/es500483w 2 doi | ||
| 040 | a UGent | ||
| 245 | a Electrolytic membrane extraction enables production of fine chemicals from biorefinery sidestreams | ||
| 260 | c 2014 | ||
| 520 | a Short-chain carboxylates such as acetate are easily produced through mixed culture fermentation of many biological waste streams, although routinely digested to biogas and combusted rather than harvested. We developed a pipeline to extract and upgrade short chain carboxylates to esters via membrane electrolysis and biphasic esterification. Carboxylate rich broths are electrolyzed in a cathodic chamber from which anions flux across an anion exchange membrane into an anodic chamber, resulting in a clean acid concentrate with neither solids nor biomass. Next, the aqueous carboxylic acid concentrate reacts with added alcohol in a water-excluding phase to generate volatile esters. In a batch extraction, 96 ± 1.6% of the total acetate was extracted in 48 h from bio-refinery thin stillage (5 g.L-1 acetate) at 379 g.m-2.d-1 (36 % Coulombic efficiency). With continuously regenerated thin-stillage, the anolyte was concentrated to 14 g.L-1 acetic acid, and converted at 2.64 g (acetate).L-1.h-1 in the first hour to ethyl acetate by the addition of excess ethanol and heating to 70°C, with a final total conversion of 58 ± 3%. This processing pipeline enables direct production of fine chemicals following undefined mixed culture fermentation, embedding carbon in industrial chemicals rather than returning them to the atmosphere as carbon dioxide. | ||
| 598 | a A1 | ||
| 100 | a Andersen, Stephen 0 000111065404 0 802001220519 0 975908245950 0 0000-0002-3791-5787 | ||
| 700 | a Hennebel, Tom u LA25 0 002003611586 0 802000118658 | ||
| 700 | a Gildemyn, Sylvia u LA25 0 000070279126 0 802001301957 0 0000-0003-2143-3502 | ||
| 700 | a Coma, Marta 0 000130327277 0 802001353083 0 973910532970 | ||
| 700 | a Desloover, Joachim 0 002004437096 0 802000741276 0 977918041591 | ||
| 700 | a Berton, Jan u LA24 0 000060418670 0 802001121495 | ||
| 700 | a Tsukamoto, Junko 0 802001271039 0 973413084840 | ||
| 700 | a Stevens, Christian u LA24 0 801000631466 | ||
| 700 | a Rabaey, Korneel u LA25 u LA62 0 001995148843 0 801001551956 0 0000-0001-8738-7778 | ||
| 650 | a Technology and Engineering | ||
| 653 | a ESTERIFICATION | ||
| 653 | a ACID | ||
| 653 | a TECHNOLOGIES | ||
| 653 | a FERMENTATION | ||
| 653 | a INHIBITION | ||
| 653 | a SEPARATION | ||
| 653 | a CONVERSION | ||
| 653 | a RECOVERY | ||
| 653 | a BIOMASS | ||
| 653 | a FUELS | ||
| 773 | t ENVIRONMENTAL SCIENCE & TECHNOLOGY g Environ. Sci. Technol. 2014. 48 (12) p.7135-7142 q 48:12<7135 | ||
| 856 | 3 Full Text u https://biblio.ugent.be/publication/4405533/file/5747779 z [ugent] y Andersen-2014-Electrolytic_Membran.pdf | ||
| 920 | a article | ||
| 852 | x BW b LA06 | ||
| 922 | a UGENT-BW | ||
| 852 | x BW b LA11 | ||
| 922 | a UGENT-BW | ||
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