Insight into Washing of Wet and Dry Crude Oil‐Contaminated Soil

Two types of artificial oil‐contaminated soils (OCS) are prepared upon mixing sandy soil with water and crude oil in different proportion. OCS‐I represents the contaminated dry soil and OCS‐II the contaminated wet soil. Soil and crude oil are characterized through infrared spectroscopy and zeta pote...

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Veröffentlicht in:Clean : soil, air, water air, water, 2021-11, Vol.49 (11), p.n/a
Hauptverfasser: Qi, Bowen, Chen, Ying, Chen, Dong, Chen, Yong, Ma, Luwei, Tian, Xiubo, Li, Yanju, Long, Yunqian
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container_issue 11
container_start_page
container_title Clean : soil, air, water
container_volume 49
creator Qi, Bowen
Chen, Ying
Chen, Dong
Chen, Yong
Ma, Luwei
Tian, Xiubo
Li, Yanju
Long, Yunqian
description Two types of artificial oil‐contaminated soils (OCS) are prepared upon mixing sandy soil with water and crude oil in different proportion. OCS‐I represents the contaminated dry soil and OCS‐II the contaminated wet soil. Soil and crude oil are characterized through infrared spectroscopy and zeta potential analysis, and the OCS microstructure model has been discussed. It is speculated that the polarity petroleum components (e.g., non‐hydrocarbons) are higher in the oil layer of the neighboring soils, forming a “polarity bottom layer.” In OCS‐I, the “polarity bottom layer” is tightly adhered to soil and exhibits poor mobility. This layer is difficult to separate from soil through washing, thereby resulting in a low oil removal rate (ORR). In OCS‐II, the petroleum and soil are separated by a water film with high liquidity. During washing, the “polarity bottom layer” is easily separable from soil, thereby resulting in a high removal rate of polarity component in crude oil and high ORR as well. Based on the results of this study, it could be concluded that OCS‐I is much more difficult to be washed than OCS‐II when these two types of soils contain relatively same amount of substance content (oil, water, and other crude oil groups). The analysis of the soil–petroleum interface is helpful to understand the mechanism of washing wet and dry crude oil‐contaminated soil. For dry soil, the non‐hydrocarbons in petroleum are tightly adhered to soil resulting in lower oil removal. However, for wet oil‐contaminated soil, there is a water film between soil and petroleum resulting in high petroleum removal.
doi_str_mv 10.1002/clen.202000440
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OCS‐I represents the contaminated dry soil and OCS‐II the contaminated wet soil. Soil and crude oil are characterized through infrared spectroscopy and zeta potential analysis, and the OCS microstructure model has been discussed. It is speculated that the polarity petroleum components (e.g., non‐hydrocarbons) are higher in the oil layer of the neighboring soils, forming a “polarity bottom layer.” In OCS‐I, the “polarity bottom layer” is tightly adhered to soil and exhibits poor mobility. This layer is difficult to separate from soil through washing, thereby resulting in a low oil removal rate (ORR). In OCS‐II, the petroleum and soil are separated by a water film with high liquidity. During washing, the “polarity bottom layer” is easily separable from soil, thereby resulting in a high removal rate of polarity component in crude oil and high ORR as well. Based on the results of this study, it could be concluded that OCS‐I is much more difficult to be washed than OCS‐II when these two types of soils contain relatively same amount of substance content (oil, water, and other crude oil groups). The analysis of the soil–petroleum interface is helpful to understand the mechanism of washing wet and dry crude oil‐contaminated soil. For dry soil, the non‐hydrocarbons in petroleum are tightly adhered to soil resulting in lower oil removal. 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OCS‐I represents the contaminated dry soil and OCS‐II the contaminated wet soil. Soil and crude oil are characterized through infrared spectroscopy and zeta potential analysis, and the OCS microstructure model has been discussed. It is speculated that the polarity petroleum components (e.g., non‐hydrocarbons) are higher in the oil layer of the neighboring soils, forming a “polarity bottom layer.” In OCS‐I, the “polarity bottom layer” is tightly adhered to soil and exhibits poor mobility. This layer is difficult to separate from soil through washing, thereby resulting in a low oil removal rate (ORR). In OCS‐II, the petroleum and soil are separated by a water film with high liquidity. During washing, the “polarity bottom layer” is easily separable from soil, thereby resulting in a high removal rate of polarity component in crude oil and high ORR as well. 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source Wiley Journals
subjects Analytical methods
Crude oil
crude oil‐contaminated sandy soil
Hydrocarbons
Infrared analysis
Infrared spectroscopy
Liquidity
Microstructure
Oil
Oil pollution
Oil removal
oil removal rate
oil‐contaminated soil microstructure model
Petroleum
Petroleum hydrocarbons
Polarity
polarity bottom layer
Pollution control
Sandy soils
seawater washing
Sediment pollution
Soil
Soil contamination
Soil layers
Soil pollution
Soil water
Washing
Water film
Zeta potential
title Insight into Washing of Wet and Dry Crude Oil‐Contaminated Soil
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