Experimental Study of Hysteresis behavior of Foam Generation in Porous Media

Journal Article (2017)
Author(s)

Siavash Kahrobaei (TU Delft - Reservoir Engineering)

Sebastien Vincent-Bonnieu (Shell Global Solutions International B.V., TU Delft - Reservoir Engineering)

R Farajzadeh (Shell Global Solutions International B.V., TU Delft - Reservoir Engineering)

Research Group
Reservoir Engineering
Copyright
© 2017 S.S. Kahrobaei, S.Y.F. Vincent-Bonnieu, R. Farajzadeh
DOI related publication
https://doi.org/10.1038/s41598-017-09589-0
More Info
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Publication Year
2017
Language
English
Copyright
© 2017 S.S. Kahrobaei, S.Y.F. Vincent-Bonnieu, R. Farajzadeh
Research Group
Reservoir Engineering
Issue number
1
Volume number
7
Pages (from-to)
1-9
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Abstract

Foam can be used for gas mobility control in different subsurface applications. The success of foam-injection process depends on foam-generation and propagation rate inside the porous medium. In some cases, foam properties depend on the history of the flow or concentration of the surfactant, i.e., the hysteresis effect. Foam may show hysteresis behavior by exhibiting multiple states at the same injection conditions, where coarse-textured foam is converted into strong foam with fine texture at a critical injection velocity or pressure gradient. This study aims to investigate the effects of injection velocity and surfactant concentration on foam generation and hysteresis behavior as a function of foam quality. We find that the transition from coarse-foam to strong-foam (i.e., the minimum pressure gradient for foam generation) is almost independent of flowrate, surfactant concentration, and foam quality. Moreover, the hysteresis behavior in foam generation occurs only at high-quality regimes and when the pressure gradient is below a certain value regardless of the total flow rate and surfactant concentration. We also observe that the rheological behavior of foam is strongly dependent on liquid velocity.

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