Measuring porous media velocity fields and grain bed architecture with a quantitative PLIF-based technique
Measuring porous media velocity fields and grain bed architecture with a quantitative PLIF-based technique
复制标题
使用基于 PLIF 的定量技术测量多孔介质速度场和颗粒床结构
DOI:
10.1088/1361-6501/acfb2b
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发表时间:
2023
影响因子:
2.4
通讯作者:
Tonina, Daniele
中科院分区:
文献类型:
--
作者:
Hilliard, Brandon;Budwig, Ralph;Skifton, Richard S.;Durgesh, Vibhav;Reeder, William J.;Bhattarai, Bishal;Martin, Benjamin T.;Xing, Tao;Tonina, Daniele
Porous media flows are common in both natural and anthropogenic systems. Mapping these flows in a laboratory setting is challenging and often requires non-intrusive measurement techniques, such as particle image velocimetry (PIV) coupled with refractive index matching (RIM). RIM-coupled PIV allows the mapping of velocity fields around transparent solids by analyzing the movement of neutrally buoyant micron-sized seeding particles. The use of this technique in a porous medium can be problematic because seeding particles adhere to grains, which causes the grain bed to lose transparency and can obstruct pore flows. Another non-intrusive optical technique, planar laser-induced fluorescence (PLIF), can be paired with RIM and does not have this limitation because fluorescent dye is used instead of particles, but it has been chiefly used for qualitative flow visualization. Here, we propose a quantitative PLIF-based methodology to map both porous media flow fields and porous media architecture. Velocity fields are obtained by tracking the advection-dominated movement of the fluorescent dye plume front within a porous medium. We also propose an automatic tracking algorithm that quantifies 2D velocity components as the plume moves through space in both an Eulerian and a Lagrangian framework. We apply this algorithm to three data sets: a synthetic data set and two laboratory experiments. Performance of this algorithm is reported by the mean (bias error, B) and standard deviation (random error, SD) of the residuals between its results and the reference data. For the synthetic data, the algorithm produces maximum errors of B & SD= 32% & 23% in the Eulerian framework, respectively, and B & SD=− 0.04% & 3.9% in the Lagrangian framework. The small-scale laboratory experimental data requires the Eulerian framework and produce errors of B & SD=− 0.5% & 33%. The Lagrangian framework is used on the large-scale laboratory experimental data and produces errors of B & SD= 5% & 44%. Mapping the porous media architecture shows negligible error for reconstructing calibration grains of known dimensions.
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DOI:
10.1016/j.jcp.2021.110526
发表时间:
2021
期刊:
J. Comput. Phys.
影响因子:
--
作者:
Kun Wang;Yu Chen;M. Mehana;N. Lubbers;K. Bennett;Q. Kang;H. Viswanathan;T. Germann
通讯作者:
T. Germann
影响因子:
4.7
作者:
Javier E. Santos;Duo Xu;H. Jo;C. Landry;M. Prodanović;M. Pyrcz
通讯作者:
Javier E. Santos;Duo Xu;H. Jo;C. Landry;M. Prodanović;M. Pyrcz
DOI:
10.1103/physreve.90.013025
发表时间:
2014-07
期刊:
Physical review. E, Statistical, nonlinear, and soft matter physics
影响因子:
--
作者:
Frank Wirner;Christian Scholz;C. Bechinger
通讯作者:
Frank Wirner;Christian Scholz;C. Bechinger
DOI:
10.1080/00288330.1993.9516585
发表时间:
1993
影响因子:
1.6
作者:
K. Deverall;J. Kelso;G. James
通讯作者:
G. James
影响因子:
3.2
作者:
S. Rubol;D. Tonina;L. Vincent;Jill A. Sohm;W. Basham;R. Budwig;P. Savalia;E. Kanso;D. Capone;K. Nealson
通讯作者:
S. Rubol;D. Tonina;L. Vincent;Jill A. Sohm;W. Basham;R. Budwig;P. Savalia;E. Kanso;D. Capone;K. Nealson