Risk Assessment of Hydrocarbons’ Storing in Different Textured Soils in Small-Scale lysimeters

The objectives of this study are to test the penetration depth and determine the soil content in hydrocarbons’ components BTEX, PAHs, and TPH, after vertical movement of crude oil through undisturbed soils of different textures, and to assess their risk. The experiment simulates the fate of oil spil...

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Veröffentlicht in:Water, air, and soil pollution air, and soil pollution, 2021-05, Vol.232 (5), Article 169
Hauptverfasser: Lăcătușu, Anca-Rovena, Paltineanu, Cristian, Domnariu, Horia, Vrinceanu, Andrei, Marica, Dora, Cristea, Ionut
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container_issue 5
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container_title Water, air, and soil pollution
container_volume 232
creator Lăcătușu, Anca-Rovena
Paltineanu, Cristian
Domnariu, Horia
Vrinceanu, Andrei
Marica, Dora
Cristea, Ionut
description The objectives of this study are to test the penetration depth and determine the soil content in hydrocarbons’ components BTEX, PAHs, and TPH, after vertical movement of crude oil through undisturbed soils of different textures, and to assess their risk. The experiment simulates the fate of oil spills in the cold season. Three soil types were investigated: a sandy-textured eutric Arenosol, AR-eu; a loamy-textured haplic chernozem, CH-ha; and a clayey-textured, swell-shrink, Luvic Chernic Phaeozem, PH-ch-lv. Undisturbed small-scale lysimeters, 0.3 m in diameter and 1 m in length, were used. Crude oil was first applied and then water. TPH, BTEX, and PAH retention in the soils depends on soil texture. PH-ch-lv soil stored most of them in the upper horizons. TPH, BTEX, and PAH were found in different amounts as percentage from the applied ones, TPH as 48% (PH-ch-lv), and > 76% in the other two soils. BTEX was stored as 1.6% from the applied in PH-ch-lv, 5.1–5.1% in CH-ha and AR-eu soils, while PAH ranged from 15.1% in AR-eu soil to 24.8% in PH-ch-lv and 31% in CH-ha. Though subject to volatilization, chemical transformation, and bioremediation, TPH, BTEX, and PAH stored in soils present a health risk if they reach the groundwater. PH-ch-lv appears to be the most resilient soil to oil pollution. The results concern different soil textures and might be used in various countries. Future experimentation should focus on soil behavior in relation to crops, water, and certain crude oil types.
doi_str_mv 10.1007/s11270-021-05126-y
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subjects Aromatic hydrocarbons
Atmospheric Protection/Air Quality Control/Air Pollution
Bioremediation
Climate Change/Climate Change Impacts
Cold season
Crude oil
Earth and Environmental Science
Environment
Environmental monitoring
Experimentation
Groundwater
Health risks
Hydrocarbons
Hydrogeology
Lysimeters
Oil pollution
Oil spills
Oils & fats
Penetration depth
Polycyclic aromatic hydrocarbons
Risk assessment
Sandy soils
Soil
Soil investigations
Soil pollution
Soil properties
Soil Science & Conservation
Soil texture
Soil types
Soils
Texture
Vertical motion
Volatilization
Water Quality/Water Pollution
Water, Underground
title Risk Assessment of Hydrocarbons’ Storing in Different Textured Soils in Small-Scale lysimeters
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