The mechanism of synergistic effect between iron-carbon microelectrolysis and biodegradation for strengthening phenols removal in coal gasification wastewater treatment

[Display omitted] •The synergistic effect between microelectrolysis and biodegradation was explored.•The growth of electro-active bacteria was induced by microelectrolysis reaction.•The syntrophy between phenols-degrading bacteria and electro-active bacteria.•Electro-active bacteria promoted electro...

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Veröffentlicht in:Bioresource technology 2019-01, Vol.271, p.84-90
Hauptverfasser: Ma, Weiwei, Han, Yuxing, Xu, Chunyan, Han, Hongjun, Zhong, Dan, Zhu, Hao, Li, Kun
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container_end_page 90
container_issue
container_start_page 84
container_title Bioresource technology
container_volume 271
creator Ma, Weiwei
Han, Yuxing
Xu, Chunyan
Han, Hongjun
Zhong, Dan
Zhu, Hao
Li, Kun
description [Display omitted] •The synergistic effect between microelectrolysis and biodegradation was explored.•The growth of electro-active bacteria was induced by microelectrolysis reaction.•The syntrophy between phenols-degrading bacteria and electro-active bacteria.•Electro-active bacteria promoted electrochemical efficiency of ICME process.•The integrated ICME-AS process effectively strengthened phenolic degradation. A novel iron-carbon microelectrolysis (ICME) inoculated with activated sludge (AS) process was specifically designed to look into the roles of microelectrolysis and biodegradation as well as their synergistic effect on phenols removal in coal gasification wastewater (CGW) treatment. The results indicated that the removal efficiency of COD, phenols and TOC in integrated ICME-AS process reached 87.36 ± 2.98%, 92.62 ± 0.76% and 84.45 ± 0.65%, respectively. Moreover, phenols-degrading bacteria and electrochemical-active bacteria presented better adaptability to phenolic impact. Meanwhile their syntrophic interaction was driven under the simulation of microelectrolysis. Furthermore, electrochemical redox efficiency was significantly improved, and the corresponding maximum power output reached 0.043 ± 0.01 mW/cm2. Apparently, the synergistic effect between microelectrolysis and biological action effectively strengthened phenols degradation and electricity generation. The results proved that the integrated ICME-AS process was a promising technology applied for CGW and other refractory industrial wastewater treatments.
doi_str_mv 10.1016/j.biortech.2018.09.084
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A novel iron-carbon microelectrolysis (ICME) inoculated with activated sludge (AS) process was specifically designed to look into the roles of microelectrolysis and biodegradation as well as their synergistic effect on phenols removal in coal gasification wastewater (CGW) treatment. The results indicated that the removal efficiency of COD, phenols and TOC in integrated ICME-AS process reached 87.36 ± 2.98%, 92.62 ± 0.76% and 84.45 ± 0.65%, respectively. Moreover, phenols-degrading bacteria and electrochemical-active bacteria presented better adaptability to phenolic impact. Meanwhile their syntrophic interaction was driven under the simulation of microelectrolysis. Furthermore, electrochemical redox efficiency was significantly improved, and the corresponding maximum power output reached 0.043 ± 0.01 mW/cm2. Apparently, the synergistic effect between microelectrolysis and biological action effectively strengthened phenols degradation and electricity generation. The results proved that the integrated ICME-AS process was a promising technology applied for CGW and other refractory industrial wastewater treatments.</description><identifier>ISSN: 0960-8524</identifier><identifier>EISSN: 1873-2976</identifier><identifier>DOI: 10.1016/j.biortech.2018.09.084</identifier><identifier>PMID: 30265956</identifier><language>eng</language><publisher>England: Elsevier Ltd</publisher><subject>Biodegradation ; Biodegradation, Environmental ; Carbon - chemistry ; Coal - analysis ; Coal gasification wastewater ; Iron - chemistry ; Iron-carbon microelectrolysis ; Oxidation-Reduction ; Phenols ; Phenols - chemistry ; Sewage ; Synergistic mechanism ; Waste Water - chemistry</subject><ispartof>Bioresource technology, 2019-01, Vol.271, p.84-90</ispartof><rights>2018 Elsevier Ltd</rights><rights>Copyright © 2018 Elsevier Ltd. 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A novel iron-carbon microelectrolysis (ICME) inoculated with activated sludge (AS) process was specifically designed to look into the roles of microelectrolysis and biodegradation as well as their synergistic effect on phenols removal in coal gasification wastewater (CGW) treatment. The results indicated that the removal efficiency of COD, phenols and TOC in integrated ICME-AS process reached 87.36 ± 2.98%, 92.62 ± 0.76% and 84.45 ± 0.65%, respectively. Moreover, phenols-degrading bacteria and electrochemical-active bacteria presented better adaptability to phenolic impact. Meanwhile their syntrophic interaction was driven under the simulation of microelectrolysis. Furthermore, electrochemical redox efficiency was significantly improved, and the corresponding maximum power output reached 0.043 ± 0.01 mW/cm2. Apparently, the synergistic effect between microelectrolysis and biological action effectively strengthened phenols degradation and electricity generation. 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A novel iron-carbon microelectrolysis (ICME) inoculated with activated sludge (AS) process was specifically designed to look into the roles of microelectrolysis and biodegradation as well as their synergistic effect on phenols removal in coal gasification wastewater (CGW) treatment. The results indicated that the removal efficiency of COD, phenols and TOC in integrated ICME-AS process reached 87.36 ± 2.98%, 92.62 ± 0.76% and 84.45 ± 0.65%, respectively. Moreover, phenols-degrading bacteria and electrochemical-active bacteria presented better adaptability to phenolic impact. Meanwhile their syntrophic interaction was driven under the simulation of microelectrolysis. Furthermore, electrochemical redox efficiency was significantly improved, and the corresponding maximum power output reached 0.043 ± 0.01 mW/cm2. Apparently, the synergistic effect between microelectrolysis and biological action effectively strengthened phenols degradation and electricity generation. 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subjects Biodegradation
Biodegradation, Environmental
Carbon - chemistry
Coal - analysis
Coal gasification wastewater
Iron - chemistry
Iron-carbon microelectrolysis
Oxidation-Reduction
Phenols
Phenols - chemistry
Sewage
Synergistic mechanism
Waste Water - chemistry
title The mechanism of synergistic effect between iron-carbon microelectrolysis and biodegradation for strengthening phenols removal in coal gasification wastewater treatment
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