NUMERICAL SIMULATION OF FLOW THROUGH ABSORBING POROUS MEDIA: PART 2. SWELLING POROUS MEDIA

被引:0
|
作者
Salokhe, Shivam [1 ,3 ]
Rahmati, Mohammad [1 ]
Masoodi, Ryan [2 ]
机构
[1] Northumbria Univ, Fac Engn & Environm, Newcastle Upon Tyne, England
[2] Thomas Jefferson Univ, Sch Design & Engn, Philadelphia, PA USA
[3] Northumbria Univ, Fac Engn & Environm, Newcastle Upon Tyne NE1 8ST, England
关键词
swelling porous media; wickingflow; capillary pressure; permeability; porosity; CFD; multiphase flow; SPONTANEOUS IMBIBITION; LIQUID; MODEL;
D O I
10.1615/JPorMedia.2023048616
中图分类号
O414.1 [热力学];
学科分类号
摘要
In the first part of this two-paper series, published in the Journal of Porous Media in 2021, a novel framework based on the combination of finite volume method and volume of fluid method was proposed to model the flow through absorbing porous media under rigid conditions. The results from the model showed a promising correlation with the experimental and analytical predictions for the wicking height and radius. However, the framework did not include swelling porous media conditions. The swelling effect influences the porosity and permeability of the porous medium considerably, therefore causing errors in the flow front location predictions if the effects are not taken into account in the numerical models. Here, the framework is extended by including the swelling effects. The empirical relation for changes in permeability is included in the existing methodology to include the swelling effects. The predictions from the proposed model showed excellent agreement with the experimental data. The modeling approach is further extended to model the flow through single and multiple layer diaper geometries. The results showed notable patterns of liquid-air interface, demonstrating the ability of the present method to track the flow fronts in combined wicking and draining flow scenarios.
引用
收藏
页码:1 / 19
页数:20
相关论文
共 50 条
  • [1] NUMERICAL SIMULATION OF FLOW THROUGH ABSORBING POROUS MEDIA PART 1: RIGID POROUS MEDIA
    Salokhe, Shivam
    Rahmati, Mohammad
    Masoodi, Ryan
    Entwhistle, Jane
    JOURNAL OF POROUS MEDIA, 2022, 25 (05) : 53 - 75
  • [2] NUMERICAL SIMULATION OF FLOW THROUGH ABSORBING POROUS MEDIA PART 1: RIGID POROUS MEDIA
    Salokhe S.
    Rahmati M.
    Masoodi R.
    Entwhistle J.
    Journal of Porous Media, 2022, 25 (05): : 53 - 75
  • [3] Modeling Unsaturated Flow in Absorbent Swelling Porous Media: Part 2. Numerical Simulation
    Diersch, Hans-Joerg G.
    Clausnitzer, Volker
    Myrnyy, Volodymyr
    Rosati, Rodrigo
    Schmidt, Mattias
    Beruda, Holger
    Ehrnsperger, Bruno J.
    Virgilio, Raffaele
    TRANSPORT IN POROUS MEDIA, 2011, 86 (03) : 753 - 776
  • [4] Modeling Unsaturated Flow in Absorbent Swelling Porous Media: Part 2. Numerical Simulation
    Hans-Jörg G. Diersch
    Volker Clausnitzer
    Volodymyr Myrnyy
    Rodrigo Rosati
    Mattias Schmidt
    Holger Beruda
    Bruno J. Ehrnsperger
    Raffaele Virgilio
    Transport in Porous Media, 2011, 86 : 753 - 776
  • [5] Numerical Simulation of Flow Through Porous Media
    Novak, Ondrej
    Petru, Michal
    CURRENT METHODS OF CONSTRUCTION DESIGN, 2020, : 539 - 544
  • [6] NUMERICAL SIMULATION OF THE GAS FLOW THROUGH THE FENCES AND POROUS MEDIA
    Kyncl, M.
    Pelant, J.
    ENGINEERING MECHANICS 2019, 2019, 25 : 231 - 234
  • [7] NUMERICAL SIMULATION FOR HEAT AND FLUID FLOW THROUGH POROUS MEDIA
    Kaneda, Masayuki
    Matsushima, Yusuke
    Suga, Kazuhiko
    PROCEEDINGS OF THE ASME/JSME 8TH THERMAL ENGINEERING JOINT CONFERENCE 2011, VOL 1 PTS A AND B, 2011, : 281 - 287
  • [8] NUMERICAL SIMULATION OF HYSTERETIC FLOW IN POROUS MEDIA
    EVRENOS, AI
    COMER, AG
    JOURNAL OF PETROLEUM TECHNOLOGY, 1969, 21 (SEP): : 1093 - &
  • [9] Oscillatory forcing of flow through porous media. Part 2. Unsteady flow
    Graham, DR
    Higdon, JJL
    JOURNAL OF FLUID MECHANICS, 2002, 465 : 237 - 260
  • [10] Numerical simulation of air flow through a biofilter with heterogeneous porous media
    Yan, Wei-Wei
    Liu, Yang
    Xu, You-Sheng
    Yang, Xiang-Long
    BIORESOURCE TECHNOLOGY, 2008, 99 (07) : 2156 - 2161