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Application of the Nonionic Surfactant-enhanced Soil Washing to the Kuwait Soil Seriously Contaminated with the Crude Oil
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  • Journal title : Economic and Environmental Geology
  • Volume 48, Issue 6,  2015, pp.491-500
  • Publisher : The Korean Society of Economic and Environmental Geology
  • DOI : 10.9719/EEG.2015.48.6.491
 Title & Authors
Application of the Nonionic Surfactant-enhanced Soil Washing to the Kuwait Soil Seriously Contaminated with the Crude Oil
Heo, Hyojin; Lee, Minhee;
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 Abstract
Batch experiments were performed to determine the feasibility of the surfactant-enhanced soil washing process at various washing conditions for the Kuwait soil seriously contaminated with the crude oil. The soil was sampled at a dried oil pond in Kuwait and its average TPH concentration was 223,754 mg/kg, which was too high to apply the conventional remediation process. Nine commercialized non-ionic surfactants were used for the batch experiment to measure the surfactant solubility for the crude oil because it was reported that they have worked for the soil remediation. Among them, three surfactants having high crude oil solubility were used for the soil washing experiment. From the result of batch experiment, 5% TritonX-100 washing solution showed the highest TPH removal efficiency (67%) for the crude oil contaminated soil. However, because the residual TPH concentration in the washed soil was still higher than the clean-up level in Kuwait (10,000 mg/kg), the repeated soil washing was performed. After five washings with 2% surfactant solution, the cumulative TPH removal efficiency was higher than 96% and the residual TPH concentration in the soil went down below the clean-up level. To measure the desorption capacity of TritonX-100 remained in the soil after the soil washing, the silica beads and the soil were washed five times with 2% TritonX-100 surfactant solution and then they were washed again with distilled water to detach the surfactant adsorbed on beads or soil. After five washings with surfactant solution, 7.8% and 19.6% of the surfactant was adsorbed on beads and soil, respectively. When additionally washed with distilled water, most of the residual surfactant were detached from beads and only 4.3% of surfactant was remained in soil. From the results, it was investigated that the surfactant-enhanced soil washing process with TritonX-100, Tergitol S-15-7, and Tergitol S-15-9 has a great capability for the remediation of the Kuwait soil seriously contaminated by crude oil (more than 220,000 mg/kg).
 Keywords
surfactant;crude oil;soil washing;Tergitol;TritonX-100;
 Language
Korean
 Cited by
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