Mobility of soluble and non-soluble hydrocarbons in contaminated aquifer

After the contamination of an aquifer by petroleum products, the residual oil trapped is a constant source of pollution by the entrainment of the most soluble hydrocarbons. By studying the exchanges of residual hydrocarbons between oil-water-air and soil, we pointed out that the liquid/gas exchange...

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Veröffentlicht in:Water science and technology 1990-01, Vol.22 (6), p.27-36
Hauptverfasser: DUCREUX, J, BOCARD, C, MUNTZER, P, RAZAKARISOA, O, ZILLIOX, L
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container_end_page 36
container_issue 6
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container_title Water science and technology
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creator DUCREUX, J
BOCARD, C
MUNTZER, P
RAZAKARISOA, O
ZILLIOX, L
description After the contamination of an aquifer by petroleum products, the residual oil trapped is a constant source of pollution by the entrainment of the most soluble hydrocarbons. By studying the exchanges of residual hydrocarbons between oil-water-air and soil, we pointed out that the liquid/gas exchange is the major factor of retention of soluble alkanes masking the adsorbing materials effects. For the soluble aromatic hydrocarbons, the main phenomenon observed is the liquid/solid exchange. The role of residual air is no more preponderant. The residual contamination of the vadose zone thus plays a preponderant role in the long-term pollution of a groundwater table. It is thus imperative to implement methods to prevent such harmful effects. The use of surfactants, by lowering the oil/water interfacial tension seems to be a new and effective method. Their adsorption into a natural matrix was studied with different porous substrates (sand, sand/silt). Their retention on sand is poor, but it increases with silt content. This is mainly due to a cationic exchange (Ca2+/Na+). In order to avoid this phenomenon a salt preflush by a 10 g/l Na Cl solution is effective. That allows a gas-oil recovery enhancement by reducing loss of surfactant in soil. Moreover, a surfactant partition between oil and water is underscored. A better understanding of these parameters would lead to the optimizing of the enhanced drainage technique for recovering residual oil trapped in an aquifer.
doi_str_mv 10.2166/wst.1990.0048
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That allows a gas-oil recovery enhancement by reducing loss of surfactant in soil. Moreover, a surfactant partition between oil and water is underscored. A better understanding of these parameters would lead to the optimizing of the enhanced drainage technique for recovering residual oil trapped in an aquifer.</abstract><cop>London</cop><pub>IWA Publishing</pub><doi>10.2166/wst.1990.0048</doi><tpages>10</tpages></addata></record>
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subjects Alkanes
Applied sciences
Aquifers
Aromatic compounds
Aromatic hydrocarbons
Biological and physicochemical properties of pollutants. Interaction in the soil
Calcium
Cation exchanging
Cations
Contamination
Entrainment
Exact sciences and technology
Gas exchange
Groundwater
Hydrocarbons
Masking
Natural gas
Oil recovery
Petroleum
Petroleum hydrocarbons
Petroleum products
Pollutants
Pollution
Pollution abatement
Pollution sources
Retention
Sand
Silt
Soil
Soil and sediments pollution
Soil contamination
Soil erosion
Soil water
Substrates
Surface tension
Surfactants
Vadose water
Water pollution
Water table
title Mobility of soluble and non-soluble hydrocarbons in contaminated aquifer
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