Enhanced reduction of nitrate by TDER packed with surface-modified plastic particles electrodes
Based on Iron cathodes, nitrate could be selectively decomposed into other lower-valence nitrogen compounds, including ammonia, nitrogen gas, nitrite and nitric oxide, but the removal efficiencies of nitrate and total nitrogen (TN), are affected significantly by the synergistic effects of anodes, ch...
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Published in: | Ecotoxicology and environmental safety Vol. 263; p. 115236 |
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Abstract | Based on Iron cathodes, nitrate could be selectively decomposed into other lower-valence nitrogen compounds, including ammonia, nitrogen gas, nitrite and nitric oxide, but the removal efficiencies of nitrate and total nitrogen (TN), are affected significantly by the synergistic effects of anodes, chloride electrolyte and conductive plastic particles electrodes. In this work, the base material Titanium (Ti) metal plates and plastic particles which surfaces were mainly coated with Ru-Sn oxidizing compounds, were applied as plates anodes and conductive particles electrodes in Three Dimensional Electrode Reactors (TDER). The Ti/RuSn plate anodes showed excellent performance on degrading nitrate, more nitrogen gas (83.84%) and less ammonia (15.51%) was produced, less TN and Iron ion (0.02 mg/L) was left in the wastewater, and less amount of chemical sludge (0.20 g/L) was produced. Furthermore, the removal efficiencies of nitrate and TN were further increased by the surface-modified plastic particles, which were cheap, reusable, corrosion-resistance, easy to obtain as manufactured materials and light to be suspended in waters. The degradation of nitrate and its intermediates was enhanced possibly by the continuous synergistic reactions initiated by hydrogen radicals, which was generated on the countless surficial active Ru-Sn sites of Ti/RuSn metal plate anodes and plastic particles electrodes, among residual nitrogen intermediates, most of ammonia was selectively converted to gaseous nitrogen by hypochlorite from chloride ion reaction.
●The decomposition of nitrate by Fe cathodes, could be achieved significantly by successive synergistic reactions of Ti/RuSn plate anodes, plastic particles electrodes and chloride electrolyte; furthermore, this process was enhanced by plastic particles electrodes.●More gaseous nitrogen and less ammonia were transformed, and less sludge was produced.●Hydrogen radicals were generated on the Iron cathodes and Ti/RuSn anodes, and participated in the transform of gaseous nitrogen, nevertheless. |
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AbstractList | Based on Iron cathodes, nitrate could be selectively decomposed into other lower-valence nitrogen compounds, including ammonia, nitrogen gas, nitrite and nitric oxide, but the removal efficiencies of nitrate and total nitrogen (TN), are affected significantly by the synergistic effects of anodes, chloride electrolyte and conductive plastic particles electrodes. In this work, the base material Titanium (Ti) metal plates and plastic particles which surfaces were mainly coated with Ru-Sn oxidizing compounds, were applied as plates anodes and conductive particles electrodes in Three Dimensional Electrode Reactors (TDER). The Ti/RuSn plate anodes showed excellent performance on degrading nitrate, more nitrogen gas (83.84%) and less ammonia (15.51%) was produced, less TN and Iron ion (0.02 mg/L) was left in the wastewater, and less amount of chemical sludge (0.20 g/L) was produced. Furthermore, the removal efficiencies of nitrate and TN were further increased by the surface-modified plastic particles, which were cheap, reusable, corrosion-resistance, easy to obtain as manufactured materials and light to be suspended in waters. The degradation of nitrate and its intermediates was enhanced possibly by the continuous synergistic reactions initiated by hydrogen radicals, which was generated on the countless surficial active Ru-Sn sites of Ti/RuSn metal plate anodes and plastic particles electrodes, among residual nitrogen intermediates, most of ammonia was selectively converted to gaseous nitrogen by hypochlorite from chloride ion reaction.
●The decomposition of nitrate by Fe cathodes, could be achieved significantly by successive synergistic reactions of Ti/RuSn plate anodes, plastic particles electrodes and chloride electrolyte; furthermore, this process was enhanced by plastic particles electrodes.●More gaseous nitrogen and less ammonia were transformed, and less sludge was produced.●Hydrogen radicals were generated on the Iron cathodes and Ti/RuSn anodes, and participated in the transform of gaseous nitrogen, nevertheless. Based on Iron cathodes, nitrate could be selectively decomposed into other lower-valence nitrogen compounds, including ammonia, nitrogen gas, nitrite and nitric oxide, but the removal efficiencies of nitrate and total nitrogen (TN), are affected significantly by the synergistic effects of anodes, chloride electrolyte and conductive plastic particles electrodes. In this work, the base material Titanium (Ti) metal plates and plastic particles which surfaces were mainly coated with Ru-Sn oxidizing compounds, were applied as plates anodes and conductive particles electrodes in Three Dimensional Electrode Reactors (TDER). The Ti/RuSn plate anodes showed excellent performance on degrading nitrate, more nitrogen gas (83.84%) and less ammonia (15.51%) was produced, less TN and Iron ion (0.02 mg/L) was left in the wastewater, and less amount of chemical sludge (0.20 g/L) was produced. Furthermore, the removal efficiencies of nitrate and TN were further increased by the surface-modified plastic particles, which were cheap, reusable, corrosion-resistance, easy to obtain as manufactured materials and light to be suspended in waters. The degradation of nitrate and its intermediates was enhanced possibly by the continuous synergistic reactions initiated by hydrogen radicals, which was generated on the countless surficial active Ru-Sn sites of Ti/RuSn metal plate anodes and plastic particles electrodes, among residual nitrogen intermediates, most of ammonia was selectively converted to gaseous nitrogen by hypochlorite from chloride ion reaction. |
ArticleNumber | 115236 |
Author | Zhang, Yang Wang, Lei Chu, Long-Wei Zhao, Qun-Fang Li, Hao-Kang Ding, Yuan-Hong |
Author_xml | – sequence: 1 givenname: Yang surname: Zhang fullname: Zhang, Yang – sequence: 2 givenname: Long-Wei surname: Chu fullname: Chu, Long-Wei – sequence: 3 givenname: Lei surname: Wang fullname: Wang, Lei email: norchemwl@126.com – sequence: 4 givenname: Hao-Kang surname: Li fullname: Li, Hao-Kang – sequence: 5 givenname: Qun-Fang surname: Zhao fullname: Zhao, Qun-Fang – sequence: 6 givenname: Yuan-Hong surname: Ding fullname: Ding, Yuan-Hong email: yhding@nju.edu.cn |
BackLink | https://www.ncbi.nlm.nih.gov/pubmed/37421897$$D View this record in MEDLINE/PubMed |
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Keywords | Iron cathode Ti/RuSn anode Nitrate Surface-modified plastic particles electrode |
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