Field Demonstrationof In Situ Remediation of ContaminatedGroundwater Using Ozone Micro–Nano-Bubble-Enhanced Oxidation

The ozone micro–nano-bubble-enhanced oxidation (O<sub>3</sub>MNBEO) technology has shown great potential for organics-contaminated groundwater remediation in laboratory studies. However, few studies addressed its effectiveness in engineering practices as well as the impact on the groundwater environment. In this study, a field demonstration was conducted to investigate the efficiency of O<sub>3</sub>MNBEO in remediating groundwater contaminated by various organic compounds. The O<sub>3</sub>MNBEO technology exhibited high removal efficiencies ranging from 85 to 100% for benzene and significantly reduced the concentration of naphthalene, toluene, and petroleum hydrocarbons in 5-day remediation. Groundwater remediation using the O<sub>3</sub>MNBEO technology required less energy consumption and CO<sub>2</sub> emissions. Moreover, O<sub>3</sub>MNBEO had no significant effect on groundwater pH and conductivity, and the oxidation–reduction potential (ORP) in groundwater and dissolved oxygen (DO) was substantially increased during the remediation process. The variations in ORP demonstrated a correlation with the contaminant concentration, which could serve as a potential indicator for assessing remediation progress. It is also worth noting that the presence of preferential seepage channels in the strata allows for the rapid migration of ozone MNBs, extending the reach of ozone MNBs. This study demonstrates that O<sub>3</sub>MNBEO is an efficient, practical, green, and sustainable technology that can be applied to in situ remediation of organics-contaminated groundwater.

Publication Details

Journal
Figshare
Published
2025-03-14
DOI
https://doi.org/10.1021/acs.est.4c13344.s002
Primary Topic
Mycorrhizal Fungi and Plant Interactions
Type
article
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Field Demonstrationof In Situ Remediation of ContaminatedGroundwater Using Ozone Micro–Nano-Bubble-Enhanced Oxidation

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Mycorrhizal Fungi and Plant Interactions
article

Field Demonstrationof In Situ Remediation of ContaminatedGroundwater Using Ozone Micro–Nano-Bubble-Enhanced Oxidation

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Abstract

The ozone micro–nano-bubble-enhanced oxidation (O<sub>3</sub>MNBEO) technology has shown great potential for organics-contaminated groundwater remediation in laboratory studies. However, few studies addressed its effectiveness in engineering practices as well as the impact on the groundwater environment. In this study, a field demonstration was conducted to investigate the efficiency of O<sub>3</sub>MNBEO in remediating groundwater contaminated by various organic compounds. The O<sub>3</sub>MNBEO technology exhibited high removal efficiencies ranging from 85 to 100% for benzene and significantly reduced the concentration of naphthalene, toluene, and petroleum hydrocarbons in 5-day remediation. Groundwater remediation using the O<sub>3</sub>MNBEO technology required less energy consumption and CO<sub>2</sub> emissions. Moreover, O<sub>3</sub>MNBEO had no significant effect on groundwater pH and conductivity, and the oxidation–reduction potential (ORP) in groundwater and dissolved oxygen (DO) was substantially increased during the remediation process. The variations in ORP demonstrated a correlation with the contaminant concentration, which could serve as a potential indicator for assessing remediation progress. It is also worth noting that the presence of preferential seepage channels in the strata allows for the rapid migration of ozone MNBs, extending the reach of ozone MNBs. This study demonstrates that O<sub>3</sub>MNBEO is an efficient, practical, green, and sustainable technology that can be applied to in situ remediation of organics-contaminated groundwater.

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Mycorrhizal Fungi and Plant Interactions
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Field Demonstrationof In Situ Remediation of ContaminatedGroundwater Using Ozone Micro–Nano-Bubble-Enhanced Oxidation · Figshare (2025) | TGRS Research Map | TGRS