Enhanced oil recovery from high-temperature, high-salinity naturally fractured carbonate reservoirs by surfactant flood

Water floods are often very inefficient in naturally fractured carbonate oil reservoirs because many of these reservoirs are mixed-wet or oil-wet as well as extremely heterogeneous. Naturally fractured reservoirs are challenging targets for chemical flooding because they typically have a high permea...

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Veröffentlicht in:Journal of petroleum science & engineering 2014-12, Vol.124, p.122-131
Hauptverfasser: Lu, Jun, Goudarzi, Ali, Chen, Peila, Kim, Do Hoon, Delshad, Mojdeh, Mohanty, Kishore K., Sepehrnoori, Kamy, Weerasooriya, Upali P., Pope, Gary A.
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container_issue
container_start_page 122
container_title Journal of petroleum science & engineering
container_volume 124
creator Lu, Jun
Goudarzi, Ali
Chen, Peila
Kim, Do Hoon
Delshad, Mojdeh
Mohanty, Kishore K.
Sepehrnoori, Kamy
Weerasooriya, Upali P.
Pope, Gary A.
description Water floods are often very inefficient in naturally fractured carbonate oil reservoirs because many of these reservoirs are mixed-wet or oil-wet as well as extremely heterogeneous. Naturally fractured reservoirs are challenging targets for chemical flooding because they typically have a high permeability contrast between the fractures and the matrix with a low matrix permeability. Some of the world׳s largest oil reservoirs are fractured carbonates with a high reservoir temperature and a high salinity formation brine. Some of them also have low API gravity oils, which also increases the difficulty of recovering the oil. A surfactant formulation has been developed that shows promising results for such difficult reservoirs. Ultra-low interfacial tension (IFT) and good aqueous stability were achieved with this new carboxylate surfactant in a hard brine at a high reservoir temperature of 100°C. Both static and dynamic imbibition experiments were conducted using a fractured carbonate core. 65.9% Oil recovery was obtained in fractured coreflood compared to 33.3% oil recovery in static imbibition test. The surfactant retention was low at 0.086mg/g of rock. The oil recovery is excellent taking into account that the temperature and salinity conditions were harsh, the core was extremely vuggy and fractured, no mobility control was used, and only a small surfactant slug was injected. The coreflood results were interpreted using a mechanistic chemical reservoir simulator. It showed that both the mechanisms of IFT reduction and wettability alteration were important for oil recovery. Neither IFT reduction nor wettability alteration alone recovered oil as high as the combined contributions from both. •A surfactant formulation was developed for a naturally fractured carbonate reservoir.•The formulation produced ultra-low IFT and altered the wettability of the rock.•Both static and dynamic imbibition were observed with the surfactant.•Experimental data was matched by UTCHEM and revealed oil recovery mechanisms.
doi_str_mv 10.1016/j.petrol.2014.10.016
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Naturally fractured reservoirs are challenging targets for chemical flooding because they typically have a high permeability contrast between the fractures and the matrix with a low matrix permeability. Some of the world׳s largest oil reservoirs are fractured carbonates with a high reservoir temperature and a high salinity formation brine. Some of them also have low API gravity oils, which also increases the difficulty of recovering the oil. A surfactant formulation has been developed that shows promising results for such difficult reservoirs. Ultra-low interfacial tension (IFT) and good aqueous stability were achieved with this new carboxylate surfactant in a hard brine at a high reservoir temperature of 100°C. Both static and dynamic imbibition experiments were conducted using a fractured carbonate core. 65.9% Oil recovery was obtained in fractured coreflood compared to 33.3% oil recovery in static imbibition test. The surfactant retention was low at 0.086mg/g of rock. 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Naturally fractured reservoirs are challenging targets for chemical flooding because they typically have a high permeability contrast between the fractures and the matrix with a low matrix permeability. Some of the world׳s largest oil reservoirs are fractured carbonates with a high reservoir temperature and a high salinity formation brine. Some of them also have low API gravity oils, which also increases the difficulty of recovering the oil. A surfactant formulation has been developed that shows promising results for such difficult reservoirs. Ultra-low interfacial tension (IFT) and good aqueous stability were achieved with this new carboxylate surfactant in a hard brine at a high reservoir temperature of 100°C. Both static and dynamic imbibition experiments were conducted using a fractured carbonate core. 65.9% Oil recovery was obtained in fractured coreflood compared to 33.3% oil recovery in static imbibition test. The surfactant retention was low at 0.086mg/g of rock. 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subjects Applied sciences
Carbonates
chemical EOR
Crude oil, natural gas and petroleum products
Crude oil, natural gas, oil shales producing equipements and methods
Energy
Enhanced oil recovery methods
Exact sciences and technology
Floods
Fuels
naturally fractured carbonate reservoirs
Oil recovery
Permeability
Prospecting and production of crude oil, natural gas, oil shales and tar sands
Reduction
Reservoirs
surfactant flooding
Surfactants
Wettability
title Enhanced oil recovery from high-temperature, high-salinity naturally fractured carbonate reservoirs by surfactant flood
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