Published January 15, 2025 | Version v1
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The impacts of hybrid of microbial enhanced oil recovery and low salinity water flooding on oil recovery mechanisms: An experimental and theoretical Investigation

Authors/Creators

  • 1. Petroleum University of Techology

Description

Microbial enhanced oil recovery (MEOR) and low salinity water flooding have been identified as effective

environmentally friendly approaches to enhance oil recovery in different reservoirs. Due to the complexities of

behavors of microorganisms and ions, the impact of low salinity water and MEOR on oil recovery mechanisms is

not yet well understood. The present work attempts to study the impact of these approaches on wettability

alteration through the measurement of contact angle and zeta potential, as well as theoretical analysis of surface

forces. In addition, several lab core flooding scenarios are defined to evaluate the oil recovery and the combination of low salinity water flooding and MEOR increased oil recovery to more than 44 %. In this study, disjoining pressure, which is known as summation of structural forces, electrostatic double layer repulsive forces,

and van der Waals attractive forces, is employed to determine the impact of ion types (MgCl2, CaCl2, NaCl, and

KCl), concentration (500, 2000, and 4000 ppm) and presence of Acinetobacter lactucae (Ib-30) microorganism on

oil recovery mechanisms. The results implied that the disjoining pressure profile is more sensitive to ion types

rather than their concentrations. Moreover, removing divalent ions would have a positive effect on the wettability alteration, and there was an interesting consistency between contact angle measurements and disjoining

pressure isotherms 

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References

  • Z. Chen, et al., Insights into wettability alteration mechanisms of microbial enhanced oil recovery by different biosurfactants in sandstone oil reservoir, Colloids Surf., A Physicochem. Eng. Asp. 691 (2024) 133889.
  • E.J. Gudina, ˜ et al., Isolation and study of microorganisms from oil samples for application in microbial enhanced oil recovery, Int. Biodeter. Biodegr. 68 (2012) 56–64.
  • P. Hosseininoosheri, Further model development and application of UTCHEM for microbial enhanced oil recovery and reservoir souring. (2016)
  • T. Al-Ghailani, et al., Application of a new bio-ASP for enhancement of oil recovery: Mechanism study and core displacement test, Fuel 287 (2021) 119432
  • J.F.B. Pereira, et al., Optimization and characterization of biosurfactant production by Bacillus subtilis isolates towards microbial enhanced oil recovery applications, Fuel 111 (2013) 259–268
  • A. Bahadori, Fundamentals of Enhanced Oil and Gas Recovery From Conventional and Unconventional Reservoirs, Gulf Professional Publishing, 2018
  • T. Torsvik, E. Gilje, E. Sunde, Aerobic Microbial Enhanced Oil Recovery, BDM Oklahoma Inc., Bartlesville, OK (United States), 1995.
  • E. Kowalewski, et al., Microbial improved oil recovery—bacterial induced wettability and interfacial tension effects on oil production, J. Pet. Sci. Eng. 52 (1–4) (2006) 275–286
  • F. Zhao, et al., Anaerobic production of surfactin by a new Bacillus subtilis isolate and the in situ emulsification and viscosity reduction effect towards enhanced oil recovery applications, J. Pet. Sci. Eng. 201 (2021) 108508
  • A.F. Hamzah, et al., Enhancing the spontaneous imbibition process using biosurfactants produced from bacteria isolated from Al-Rafidiya oil field for improved oil recovery, J. Pet. Explor. Prod. Technol. 10 (2020) 3767–3777
  • A. Najafi-Marghmaleki, et al., Experimental investigation of efficiency of MEOR process in a carbonate oil reservoir using Alcaligenes faecalis: impact of interfacial tension reduction and wettability alteration mechanisms, Fuel 232 (2018) 27–35.
  • H. Haddad, et al., Investigating the potential of microbial enhanced oil recovery in carbonate reservoirs using Bacillus persicus, Fuel 334 (2023) 126757
  • I.A. Purwasena, et al., Production, characterization, and application of Pseudoxanthomonas taiwanensis biosurfactant: a green chemical for microbial enhanced oil recovery (MEOR), Sci. Rep. 14 (1) (2024) 10270
  • T. Park, et al., Modification of interfacial tension and wettability in oil–brine–quartz system by in situ bacterial biosurfactant production at reservoir conditions: implications for microbial enhanced oil recovery, Energy Fuel 33 (6) (2019) 4909–4920
  • S. Aghaei, et al., A micromodel investigation on the flooding of glycolipid biosurfactants for enhanced oil recovery, Geoenergy Sci. Eng. 230 (2023) 212219
  • A.K. Alhuraishawy, et al., Mineral dissolution and fine migration effect on oil recovery factor by low-salinity water flooding in low-permeability sandstone reservoir, Fuel 220 (2018) 898–907.
  • P. Bhicajee, L. Romero-Zeron, ´ Effect of different low salinity flooding schemes and the addition of alkali on the performance of low-salinity waterflooding during the recovery of heavy oil from unconsolidated sandstone, Fuel 289 (2021) 119981
  • A. RezaeiDoust, et al., Smart water as wettability modifier in carbonate and sandstone: A discussion of similarities/differences in the chemical mechanisms, Energy Fuel 23 (9) (2009) 4479–4485.
  • O. Alomair, et al., Evaluation of the impact of low-salinity water on wettability alteration and oil recovery in Berea sandstones, Fuel 337 (2023) 127151
  • S.B. Fredriksen, et al., Wettability effects on osmosis as an oil-mobilization mechanism during low-salinity waterflooding, Petrophysics 58 (01) (2017) 28–35
  • H. Cho, T. Kar, A. Firoozabadi, Effect of interface elasticity on improved oil recovery in a carbonate rock from low salinity and ultra-low concentration demulsifier, Fuel 270 (2020) 117504
  • H.N. Al-Saedi, R.E. Flori, P.V. Brady, Effect of divalent cations in formation water on wettability alteration during low salinity water flooding in sandstone reservoirs: Oil recovery analyses, surface reactivity tests, contact angle, and spontaneous imbibition experiments, J. Mol. Liq. 275 (2019) 163–172.
  • H.N. Al-Saedi, R.E. Flori, P.V. Brady, Effect of divalent cations in formation water on wettability alteration during low salinity water flooding in sandstone reservoirs: Oil recovery analyses, surface reactivity tests, contact angle, and spontaneous imbibition experiments, J. Mol. Liq. 275 (2019) 163–172.
  • G.-Q. Tang, N.R. Morrow, Influence of brine composition and fines migration on crude oil/brine/rock interactions and oil recovery, J. Pet. Sci. Eng. 24 (2–4) (1999) 99–111
  • A. Abdi, et al., Effect of bacteria on oil/water interfacial tension in asphaltenic oil reservoirs, Colloids Surf. A, Physicochem Eng. Asp. 639 (2022) 128263.
  • A. Abdi, et al., Investigating the mechanism of interfacial tension reduction through the combination of low-salinity water and bacteria, Sci. Rep. 14 (1) (2024) 11408
  • J.S. Buckley, Y. Liu, Some mechanisms of crude oil/brine/solid interactions, J. Pet. Sci. Eng. 20 (3–4) (1998) 155–160.
  • A.D. Monfared, et al., Adsorption of silica nanoparticles onto calcite: Equilibrium, kinetic, thermodynamic and DLVO analysis, Chem. Eng. J. 281 (2015) 334–344
  • E.J.W. Verwey, J.T.G. Overbeek, Long distance forces acting between colloidal particles, Trans. Faraday Soc. 42 (1946) B117–B123
  • G.J. Hirasakl, Wettability: fundamentals and surface forces, SPE Form. Eval. 6 (02) (1991) 217–226.
  • S. Basu, M.M. Sharma, Measurement of critical disjoining pressure for dewetting of solid surfaces, J. Colloid Interface Sci. 181 (2) (1996) 443–455
  • G. Whyman, E. Bormashenko, T. Stein, The rigorous derivation of Young, Cassie–Baxter and Wenzel equations and the analysis of the contact angle hysteresis phenomenon, Chem. Phys. Lett. 450 (4–6) (2008) 355–359
  • B.V. Derjaguin, Theory of capillary condensation and other capillary phenomena accounting for the disjoining pressure of polymolecular liquid films, Acta Physicochim. URSS 12 (1940) 181–200
  • A. Frumkin, Phenomena of wetting and adhesion of bubbles, Zh. Fiz. Khim. 12 (337) (1938) 337–345
  • A. Dehghan Monfared, et al., Wettability alteration modeling for oil-wet calcite/ silica nanoparticle system using surface forces analysis: contribution of DLVO versus non-DLVO interactions, Ind. Eng. Chem. Res. 57 (43) (2018) 14482–14492
  • A. Dehghan Monfared, et al., Potential application of silica nanoparticles for wettability alteration of oil–wet calcite: a mechanistic study, Energy Fuel 30 (5) (2016) 3947–3961
  • J. Gregory, Interaction of unequal double layers at constant charge, J. Colloid Interface Sci. 51 (1) (1975) 44–51
  • A. Bazyari, et al., Performance of smart water in clay-rich sandstones: experimental and theoretical analysis, Energy Fuel 32 (10) (2018) 10354–10366
  • B.V. Derjaguin, et al., Surface forces in transport phenomena, Surface Forces (1987) 369–431.
  • J.N. Israelachvili, G.E. Adams, Measurement of forces between two mica surfaces in aqueous electrolyte solutions in the range 0–100 nm, J. Chem. Soc., Faraday Trans. 1: Phys. Chem. Condens. Phases 74 (1978) 975–1001
  • G. Hirasakl, Wettability: fundamentals and surface forces. 6(02) (1991) 217-226
  • J.N. Israelachvili, G.E. Adams, Measurement of forces between two mica surfaces in aqueous electrolyte solutions in the range 0–100 nm, J. Chem. Soc., Faraday Trans. 1 74 (1978) 975–1001
  • J.C. Melrose, Interpretation of mixed wettability states in reservoir rocks. SPE
  • S. Sadeghianfard Boroojeni, H. Motamedi, Screening oil tank bottom sludge microbial community for identification of native efficient hydrocarbon-degrading bacteria for bioremediation purposes, Int. J. Environ. Sci. Technol. (2024) 1–12