Russell Johns | Pennsylvania State University (original) (raw)

Related Authors

Bilal Succar

David Seamon

Armando Marques-Guedes

Bronwyn  Hall

Noe Cornago

Noe Cornago

University of the Basque Country, Euskal Herriko Unibertsitatea

José Pino-Díaz

Alexandra Okada

Rose Alinda Alias

Viacheslav Kuleshov

Ehsan Mohammadi

Uploads

Papers by Russell Johns

Research paper thumbnail of Development of a Coupled Dual Continuum and Discrete Fracture Model for the Simulation of Unconventional Reservoirs

SPE Reservoir Simulation Symposium, 2013

Research paper thumbnail of Development of a Novel and Computationally-Efficient Discrete-Fracture Model to Study IOR Processes in Naturally Fractured Reservoirs

SPE Improved Oil Recovery Symposium, 2012

Research paper thumbnail of Fractional-flow Theory Applied to Non-Newtonian IOR Processes

11th European Conference on the Mathematics of Oil Recovery, 2008

Research paper thumbnail of Coupled Geomechanics and Flow Simulation for an Embedded Discrete Fracture Model

SPE Reservoir Simulation Symposium, 2013

Research paper thumbnail of Simulation of Asphaltene Precipitation during Gas Injection Using PC-SAFT EOS

SPE Annual Technical Conference and Exhibition, 2014

Research paper thumbnail of A Parametric Study of Reservoir Cooling for Enhanced Recovery by CO2 Flooding

SPE Annual Technical Conference and Exhibition, 2014

Research paper thumbnail of Modeling and Simulation Studies of Foam Processes in Improved Oil Recovery and Acid-Diversions

Research paper thumbnail of Improved Reduced Flash Calculations Using Two-Parameter BIP Equation

Research paper thumbnail of SPE-171028-MS

Research paper thumbnail of SPE-170927-MS

Research paper thumbnail of SPE-170626-MS

Research paper thumbnail of SPE-173221-MS

Research paper thumbnail of Application of Multiple-Mixing-Cell Method to Improve Speed and Robustness of Compositional Simulation

Research paper thumbnail of Use of a Reduced Method in Compositional Simulation

Research paper thumbnail of Fundamentals of Enhanced Oil Recovery

Research paper thumbnail of Effect of capillary pressure on phase behavior in tight rocks and shales

Phase behavior is important in the calculation of hydrocarbons in place and in the flow of phases... more Phase behavior is important in the calculation of hydrocarbons in place and in the flow of phases through the rocks. Pore sizes can be on the order of nanometers for shale and tight-rock formations. Such small pores can affect the phase behavior of in-situ oil and gas because of increased capillary pressure. Not accounting for increased capillary pressure in small pores can lead to inaccurate estimates of ultimate recovery, and of saturation pressures. In this paper, capillary pressure is coupled with phase equilibrium equations, and the resulting system of nonlinear fugacity equations is solved to present a comprehensive examination of the effect of small pores on saturation pressures and fluid densities. Binary mixtures of methane with heavier hydrocarbons and a real reservoir fluid from the Bakken shale are considered.

Research paper thumbnail of The Dissertation Committee for Rouzbeh Ghanbarnezhad Moghanloo Certifies that this is the approved version of the following dissertation

Research paper thumbnail of Effect of Saturation Dependent Capillary Pressure on Production in Tight Rocks and Shales: A Compositionally-Extended Black Oil Formulation

SPE Eastern Regional Meeting, 2014

Research paper thumbnail of Effect of Capillary Pressure on Fluid Density and Phase Behavior in Tight Rocks and Shales

SPE Annual Technical Conference and Exhibition, 2012

Phase behavior is important in the calculation of hydrocarbons in place and in the flow of phases... more Phase behavior is important in the calculation of hydrocarbons in place and in the flow of phases through the rocks. Pore sizes can be on the order of nanometers for shale and tight-rock formations. Such small pores can affect the phase behavior of in-situ oil and gas because of increased capillary pressure. Not accounting for increased capillary pressure in small pores can lead to inaccurate estimates of ultimate recovery, and of saturation pressures. In this paper, capillary pressure is coupled with phase equilibrium equations, and the resulting system of nonlinear fugacity equations is solved to present a comprehensive examination of the effect of small pores on saturation pressures and fluid densities. Binary mixtures of methane with heavier hydrocarbons and a real reservoir fluid from the Bakken shale are considered.

Research paper thumbnail of Consistent Extrapolation of Black and Volatile Oil Fluid Properties Above Original Saturation Pressure for Tight and Conventional Reservoirs

SPE Reservoir Simulation Symposium, 2015

Research paper thumbnail of Development of a Coupled Dual Continuum and Discrete Fracture Model for the Simulation of Unconventional Reservoirs

SPE Reservoir Simulation Symposium, 2013

Research paper thumbnail of Development of a Novel and Computationally-Efficient Discrete-Fracture Model to Study IOR Processes in Naturally Fractured Reservoirs

SPE Improved Oil Recovery Symposium, 2012

Research paper thumbnail of Fractional-flow Theory Applied to Non-Newtonian IOR Processes

11th European Conference on the Mathematics of Oil Recovery, 2008

Research paper thumbnail of Coupled Geomechanics and Flow Simulation for an Embedded Discrete Fracture Model

SPE Reservoir Simulation Symposium, 2013

Research paper thumbnail of Simulation of Asphaltene Precipitation during Gas Injection Using PC-SAFT EOS

SPE Annual Technical Conference and Exhibition, 2014

Research paper thumbnail of A Parametric Study of Reservoir Cooling for Enhanced Recovery by CO2 Flooding

SPE Annual Technical Conference and Exhibition, 2014

Research paper thumbnail of Modeling and Simulation Studies of Foam Processes in Improved Oil Recovery and Acid-Diversions

Research paper thumbnail of Improved Reduced Flash Calculations Using Two-Parameter BIP Equation

Research paper thumbnail of SPE-171028-MS

Research paper thumbnail of SPE-170927-MS

Research paper thumbnail of SPE-170626-MS

Research paper thumbnail of SPE-173221-MS

Research paper thumbnail of Application of Multiple-Mixing-Cell Method to Improve Speed and Robustness of Compositional Simulation

Research paper thumbnail of Use of a Reduced Method in Compositional Simulation

Research paper thumbnail of Fundamentals of Enhanced Oil Recovery

Research paper thumbnail of Effect of capillary pressure on phase behavior in tight rocks and shales

Phase behavior is important in the calculation of hydrocarbons in place and in the flow of phases... more Phase behavior is important in the calculation of hydrocarbons in place and in the flow of phases through the rocks. Pore sizes can be on the order of nanometers for shale and tight-rock formations. Such small pores can affect the phase behavior of in-situ oil and gas because of increased capillary pressure. Not accounting for increased capillary pressure in small pores can lead to inaccurate estimates of ultimate recovery, and of saturation pressures. In this paper, capillary pressure is coupled with phase equilibrium equations, and the resulting system of nonlinear fugacity equations is solved to present a comprehensive examination of the effect of small pores on saturation pressures and fluid densities. Binary mixtures of methane with heavier hydrocarbons and a real reservoir fluid from the Bakken shale are considered.

Research paper thumbnail of The Dissertation Committee for Rouzbeh Ghanbarnezhad Moghanloo Certifies that this is the approved version of the following dissertation

Research paper thumbnail of Effect of Saturation Dependent Capillary Pressure on Production in Tight Rocks and Shales: A Compositionally-Extended Black Oil Formulation

SPE Eastern Regional Meeting, 2014

Research paper thumbnail of Effect of Capillary Pressure on Fluid Density and Phase Behavior in Tight Rocks and Shales

SPE Annual Technical Conference and Exhibition, 2012

Phase behavior is important in the calculation of hydrocarbons in place and in the flow of phases... more Phase behavior is important in the calculation of hydrocarbons in place and in the flow of phases through the rocks. Pore sizes can be on the order of nanometers for shale and tight-rock formations. Such small pores can affect the phase behavior of in-situ oil and gas because of increased capillary pressure. Not accounting for increased capillary pressure in small pores can lead to inaccurate estimates of ultimate recovery, and of saturation pressures. In this paper, capillary pressure is coupled with phase equilibrium equations, and the resulting system of nonlinear fugacity equations is solved to present a comprehensive examination of the effect of small pores on saturation pressures and fluid densities. Binary mixtures of methane with heavier hydrocarbons and a real reservoir fluid from the Bakken shale are considered.

Research paper thumbnail of Consistent Extrapolation of Black and Volatile Oil Fluid Properties Above Original Saturation Pressure for Tight and Conventional Reservoirs

SPE Reservoir Simulation Symposium, 2015

Log In