Experimental investigation of CO2–rock–brine interaction for injection of CO2 in an Iranian oil reservoir as an EOR method

In this study, possibility of geological storage of CO 2 into an Iranian hydrocarbon reservoir is investigated as a method of enhanced oil recovery (EOR). For this purpose, a stainless steel sand packed model, containing rock and brine, was used to simulate the reservoir condition and CO 2 injection...

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Veröffentlicht in:Environmental earth sciences 2020-10, Vol.79 (20), Article 480
Hauptverfasser: Zandvakili, Amin, Rahbar Shahrouzi, Javad, Tabatabaei-Nejad, Seyyed Alireza, Khodapanah, Elnaz
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container_title Environmental earth sciences
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creator Zandvakili, Amin
Rahbar Shahrouzi, Javad
Tabatabaei-Nejad, Seyyed Alireza
Khodapanah, Elnaz
description In this study, possibility of geological storage of CO 2 into an Iranian hydrocarbon reservoir is investigated as a method of enhanced oil recovery (EOR). For this purpose, a stainless steel sand packed model, containing rock and brine, was used to simulate the reservoir condition and CO 2 injection. Subsequently, CO 2 –rock–brine interactions (dissolution and deposition of minerals) due to CO 2 injection, under reservoir pressure and temperature condition (136 bar and 80 °C), was studied with ion chromatography and pH measurement at time intervals of 7, 14 and 30 days. In addition, the rock structure was identified by X-ray diffraction analysis. Results showed that up to 14 days, pH and the concentration of cations (sodium, calcium, magnesium, and potassium) and anions (chloride and sulfate) were progressively increased. However, in 30 days, assays, both pH and concentration, were decreased compared to those of 14 days of test results. Consequently, the dissolution process was observed to be the dominant phenomenon in the early days; then, the deposition of secondary minerals became the main process during the performed test. Finally, in the case of selecting the right place for CO 2 injection, to avoid the porosity and permeability decrease near the well, this method can be used as a safe technique for CO 2 geological storage at specific time intervals in the studied oil reservoir.
doi_str_mv 10.1007/s12665-020-09214-w
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For this purpose, a stainless steel sand packed model, containing rock and brine, was used to simulate the reservoir condition and CO 2 injection. Subsequently, CO 2 –rock–brine interactions (dissolution and deposition of minerals) due to CO 2 injection, under reservoir pressure and temperature condition (136 bar and 80 °C), was studied with ion chromatography and pH measurement at time intervals of 7, 14 and 30 days. In addition, the rock structure was identified by X-ray diffraction analysis. Results showed that up to 14 days, pH and the concentration of cations (sodium, calcium, magnesium, and potassium) and anions (chloride and sulfate) were progressively increased. However, in 30 days, assays, both pH and concentration, were decreased compared to those of 14 days of test results. Consequently, the dissolution process was observed to be the dominant phenomenon in the early days; then, the deposition of secondary minerals became the main process during the performed test. 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subjects Anions
Biogeosciences
Brines
Calcium
Carbon dioxide
Carbon sequestration
Cations
Chromatography
Deposition
Dissolution
Dissolving
Earth and Environmental Science
Earth Sciences
Enhanced oil recovery
Environmental Science and Engineering
Geochemistry
Geology
Hydrology/Water Resources
Injection
Intervals
Magnesium
Minerals
Oil
Oil recovery
Oil reservoirs
Original Article
Permeability
pH effects
Porosity
Potassium
Reservoirs
Rocks
Sodium
Stainless steel
Stainless steels
Storage
Terrestrial Pollution
Time measurement
X-ray diffraction
X-ray diffraction analysis
title Experimental investigation of CO2–rock–brine interaction for injection of CO2 in an Iranian oil reservoir as an EOR method
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