Fractal model equation for spontaneous imbibition

Authors

DOI:

https://doi.org/10.31349/RevMexFis.66.283

Keywords:

Topological Hausdorff dimension, spontaneous imbibition, Cantor Tartan, Menger Sponge

Abstract

A new analytic model of fractal imbibition in porous media is derived. The topological Hausdorff dimension is used as a fractal parameter in
the proposed model. The fractal formulation is based on the model introduced by Li and Zhao to predict the production rate by spontaneous
imbibition. Cantor Tartans and Menger sponge fractals are used to simulate fractal porous media with different ramifications. Results of
illustrative examples are presented in the form of a set of curves, which reveal the features of enhanced oil recovery of the model under
consideration. The results are compared with the experimental behaviour found on core samples of previous publications.

References

R. Lucas. Rate of capillary ascension of liquids. Kolloid-

Zeitschrift, 23:15–22, (1918).

E.W.Washburn. Dynamics of capillary flow. Physical Review,

:273–283, (1921).

Alexander S. Balankin and O. Susarrey Huerta. Kinetic roughening

and pinning of two coupled interfaces in disordered media.

Physical Review Letters, 96:056101, (2006).

A. M. Miranda, I. L. Menezes Sobrinho, and M. S. Couto.

Spontaneous imbibition experiment in newspaper sheets. Physical

Review Letters, 104:086101, (2010).

R. D. Laughlin and J. E. Davies. Some aspects of capillary absorption

in fibrous textile wicking. Textile Res. J., 31:39–48,

(1961).

Thomas Delker, David B. Pengra, and Po-zen Wong. Interface

pinning and the dynamics of capillary rise in porous media.

Physical Review Letters, 76:2902–2905, (1996).

Kewen Li, K. Chow, and N. Horne. Influence of initial

water saturartion on recovery by spontaneous imbibition in

gas/water/rock systems and the calculation of relative permeability.

SPE Reservoir Evaluation & Engineering, 9:295–301,

(2006).

Alexander S. Balankin et al. Depinning and dynamics of imbibition

fronts in paper under increasing ambient humidity. Physical

Review E, 87:014102, (2013).

Jianchao Cai, Bo-Ming Yu, Mao-Fei Mei, and Liang Luo. Capillary

rise in a single tortuous capillary. Chinese Physics Letters,

:054701, (2010).

Jianchao Cai and Bo-Ming Yu. A discussion of the effect of tortuosity

on the capillary imbibition in porous media. Transport

in Porous Media, 89:251–263, (2011).

D. Samayoa et al. Fractal imbibition in koch’s curve-like capillary

tubes. Revista Mexicana de Física, 64:291–295, (2018).

Kewen Li and Haiyang Zhao. Fractal prediction model of spontaneous

imbibition rate. Transport in porous media, 91:363–

, (2012).

Jean-Fran c¸ ois Gouyet and Amy L. R. Bug. Physics and fractal

structures. American Journal of Physics, 65(7):676–677,

(1997).

Armin Bunde and Shlomo Havlin. Fractals and disordered systems.

Springer Science & Business Media, (2012).

Alexander S. Balankin, B. Mena, and M. Mart´ınez. Topological

hausdorff dimension and geodesic metric of critical percolation

cluster in two dimensions. Physics Letters A, 381:2665–2672,

(2017).

Alexander S. Balankin. The topological hausdorff dimension

and transport properties of sierpi´nski carpets. Physics Letters

A, 381:2801–2808, (2017).

R. Balka, Z. Buczolich, and M. Elekes. A new fractal dimension:

The topological hausdorff dimension. Advances in Mathematics,

:881–927, (2015).

Haiyang Zhao and Kewen Li. A fractal model of production by

spontaneous water imbibition. SPE International, Latin American

and Caribbean Petroleum Engineering Conference held in

Cartagena, Colombia.

R. Lenormand. Gravity–assisted inert gas injection, micromodel

experiments and model based on fractal roughness. The

European Oil and Gas Conference, Altavilla Milicia, Italy.

S. Schopf, A. Hartwig, U. Fritsching, and L. Madler. Imbibition

into highly porous layers of aggregated particles. Transport in

Porous Media, 119:119, (2017).

Alexander S. Balankin. Mapping physical problems on fractals

onto boundary value problems within continuum framework.

Physics Letters A, 382:141, (2018).

Alexander S. Balankin, M. A. Mart´ınez, O. Susarrey Huerta,

and L. Damian Adame. Percolation on infinitely ramified fractal

networks. Physics Letters A, 382:12–19, (2018).

Aleander S. Balankin et al. Effects of ramification and connectivity

degree on site percolation threshold on regular lattices

and fractal networks. Physics Letters A, 383:957–966, (2019).

Thorsten Emmerich et al. Complex networks embedded in space:

Dimension and scaling relations between mass, topological

distance, and euclidean distance. Physical Review E, 87.

Masanori Hino. Geodesic distances and intrinsic distances on

some fractal sets. Publications of the Research Institute for

Mathematical Sciences, 50.

Alexander S. Balankin et al. Noteworthy fractal features

and transport properties of cantor tartans. Physics Letters A,

:1534–1539, (2018).

S. I. Khan and I. Shahidul. An exploration of the generalized

cantor set. International journal of Scientific and Technology

Research, 2:1534–1539, (2013).

Alireza. K. Golmankhaneh and Arran Fernandez. Fractal calculus

of functions on cantor tartan spaces. Fractal and fractional,

:30, (2018).

lireza K. Golmankahneh and Cemil Tunc. Analogues to lie

method and noethers theorem in fractal calculus. Fractal and

Fractional, 3:25, (2019).

S. A. Paul. Fractals and chaos. IOP Publishing Ltd 1997,

(1997).

Claudio A. Dimarco. Topological conformal dimension. Conformal

Geometry and Dynamics, 19:19–34, (2015).

Colleen D. Cutler et al. Dimension estimation and models,

Nonlinear Time Series and Chaos, volume 1. World Scientific,

(1993).

Peter Hall and Andrew Wood. On the performance of

box-counting estimators of fractal dimension. Biometrika,

(1):246–251, (1993).

L. Damian Adame et al. An estimation method of fractal dimension

of self-avoiding roughened interfaces. Revista Mexicana

de Física, 63:12–18, (2017).

Lijun You, Jianchao Cai, Yili Kang, and Liang Luo. A fractal

approach to spontaneous imbibition height in porous media. International

Journal of Modern Physics C, 24:1350063, (2013).

Liang Luo, Jianchao Cai, and Xiangfeng Zeng. Numerical simulation

of tortuosity for fluid flow in two-dimensional pore

fractal models of porous media. Fractals, 22:1450015, (2014).

Downloads

Published

2020-05-01

How to Cite

[1]
D. Samayoa, L. A. Ochoa Ontiveros, L. Damián Adame, E. Reyes de Luna, L. Álvarez Romero, and G. Romero-Paredes, “Fractal model equation for spontaneous imbibition”, Rev. Mex. Fís., vol. 66, no. 3 May-Jun, pp. 283–290, May 2020.