Multiscale Flow Through Complex Nanoscale Permeable Media Across Twelve Orders of Magnitude (e.g., Nanometers to Kilometers): How Do Experimental Efforts and Models Address this Disparity in Scales.

Aryana, Saman

MR023
Multiscale Flow Through Complex Nanoscale Permeable Media Across Twelve Orders of Magnitude (e.g., Nanometers to Kilometers): How Do Experimental Efforts and Models Address this Disparity in Scales.

Session ID#: 76469

Session Description:

This panel seeks to bring together experimentalists and modelers to address the challenging task of developing a cohesive description of various physical mechanisms operating across the wide array of scales, from nanometers to kilometers and from seconds to centuries, in complex porous media and in the context of the subsurface. Accurate understanding of physical mechanisms that dominate transport at each scale is the first step; however, it is crucial to ultimately understand the extent of the impact of each of these mechanisms across relevant physical scales and find effective and creative macro-scale descriptions that enable an accurate accounting of all significant parameters across the wide range of spatial and temporal scales. This session welcomes contribution from experimentalists and mathematical modelers to facilitate cross-discipline dialogue and collaboration in all areas related to flow through subsurface permeable media.

Index Terms:

1832 Groundwater transport [HYDROLOGY]
5104 Fracture and flow [PHYSICAL PROPERTIES OF ROCKS]
5139 Transport properties [PHYSICAL PROPERTIES OF ROCKS]
5199 General or miscellaneous [PHYSICAL PROPERTIES OF ROCKS]

Primary Convener: Saman A Aryana, University of Wyoming, Department of Chemical Engineering, Laramie, WY, United States

Conveners: Anthony R Kovscek, Stanford University, Energy Resources Engineering, Stanford, CA, United States, Milind Deo, The University of Utah, Department of Chemical Engineering, Salt Lake City, UT, United States and Frederico Furtado, The University of Wyoming, Department of Mathematics and Statistics, Laramie, WY, United States

Primary Liaison: Saman A Aryana, University of Wyoming, Department of Chemical Engineering, Laramie, WY, United States

Patch-based multiscale algorithm for flow and reactive transport in fracture-microcrack networks in shales (491150)

Ziyan Wang and Ilenia Battiato, Stanford University, Stanford, CA, United States

Deep Learning and Multimodality Imaging to Improve Shale Fabric Characterization (495588)

Timothy Anderson, Stanford University, Electrical Engineering, Stanford, CA, United States, Bolivia Vega, Stanford University, Energy Resources Engineering Department, Stanford, CA, United States and Anthony R Kovscek, Stanford University, Energy Resources Engineering, Stanford, CA, United States

Scale-dependent Contribution of Flow and Diffusion to Transport in Nanoscale Pathways (502858)

Yuhang Wang, University of Wyoming, Laramie, WY, United States and Saman A Aryana, The University of Wyoming, Department of Chemical Engineering, Laramie, WY, United States

A microfluidic platform for assessing reaction and transport in fractured shale media (510219)

Bowen Ling¹, Jennifer L Druhan² and Ilenia Battiato¹, (1)Stanford University, Stanford, CA, United States, (2)University of Illinois at Urbana Champaign, Department of Geology, Urbana, IL, United States

Changes to pore architecture due to geochemical interactions between stimulation fluid, formation water, and an unconventional gas shale (519870)

Matthew G Edgin¹, Bryan X Medina², John P. Kaszuba³, Janet Dewey³ and Vladimir Alvarado², (1)University of Wyoming, Laramie, WY, United States, (2)University of Wyoming, Chemical Engineering, Laramie, WY, United States, (3)University of Wyoming, Geology and Geophysics, Laramie, WY, United States

Pore-Network Modeling of Single-Phase Reactive Flow and Dissolution Pattern Evaluation (529745)

Barbara de Farias Esteves^1,2, Anthony R Kovscek¹, Paulo Laranjeira da Cunha Lage² and Paulo Couto³, (1)Stanford University, Energy Resources Engineering, Stanford, CA, United States, (2)Federal University of Rio de Janeiro, Chemical Engineering, Rio de Janeiro, Brazil, (3)Federal University of Rio de Janeiro, Civil Engineering, Rio de Janeiro, Brazil

Scaling to Reduce Uncertainty in Predictions of Short-term Imbibition (530847)

Tetsu K Tokunaga, Lawrence Berkeley National Laboratory, Berkeley, CA, United States

Breakdown Pressure of Green River Shale With sc-CO₂ and Water Monitored Using X-ray Computed Tomography (559370)

Talal AL Shafloot, Tae Wook Kim and Anthony R Kovscek, Stanford University, Energy Resources Engineering, Stanford, CA, United States

A new gas content evaluation method for organic-rich shale in deep reservoir base on the digital core (564426)

Lili Ji, Chinese Academy of Sciences, Institute of mechanics, Beijing, China, Mian Lin, Institue, Santa Cruz, CA, United States, Wen Bin Jiang, CAS Chinese Academy of Sciences, Institute of mechanics, Beijng, China and Gaohui Cao, Chinese Academy of Sciences, Beijing, China

Impact of the organic phase on shale pore structure in contact with fracking/stimulation fluid – Analysis of low- and high-pressure sorption experiments (568126)

Vladimir Alvarado¹, Bryan X Medina¹, Matthew Edgin², Janet Dewey³ and John P. Kaszuba³, (1)University of Wyoming, Chemical Engineering, Laramie, WY, United States, (2)University of Wyoming, Geology & Geophysics, Laramie, WY, United States, (3)University of Wyoming, Geology and Geophysics, Laramie, WY, United States

Deviations in point of zero charge with nanoscale pore geometries of synthesized silica-based materials (586603)

Andrew Jacobson¹, Janet Dewey¹, Murali G Muraleedharan², Chen Chen³, Adri C T van Duin³, Grant C Copland⁴, John P. Kaszuba¹, Yiqing Xia⁵, Sabyasachi Sen⁵, Subhash Risbud⁵, Hyeyoung Cho⁶, Milind Deo⁷, Michael Bartl⁸ and Darryl P. Butt⁹, (1)University of Wyoming, Geology and Geophysics, Laramie, WY, United States, (2)Pennsylvania State University Main Campus, Mechanical Engineering, University Park, PA, United States, (3)Pennsylvania State University Main Campus, Mechanical Engineering, University Park, United States, (4)University of Wyoming, Geology and Geophysics, Laramie, United States, (5)University of California Davis, Materials Science and Engineering, Davis, United States, (6)University of Utah, Chemical Engineering, Salt Lake City, United States, (7)The University of Utah, Department of Chemical Engineering, Salt Lake City, UT, United States, (8)University of California Berkeley, Berkeley, United States, (9)The University of Utah, College of Mines and Earth Sciences, Salt Lake City, UT, United States

Multiscale imaging characterization of fracture fluid migration and reactive transport in shales (629551)

Asli Gundogar^1,2, Cynthia M Ross¹, Qingyun Li^2,3, Adam D Jew², John Bargar² and Anthony R Kovscek¹, (1)Stanford University, Energy Resources Engineering, Stanford, CA, United States, (2)SLAC National Accelerator Laboratory, Stanford Synchrotron Radiation Lightsource, Menlo Park, CA, United States, (3)Stanford University, Department of Geological Sciences, Stanford, CA, United States

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MR023 Multiscale Flow Through Complex Nanoscale Permeable Media Across Twelve Orders of Magnitude (e.g., Nanometers to Kilometers): How Do Experimental Efforts and Models Address this Disparity in Scales.

Session Description:

Index Terms:

MR023
Multiscale Flow Through Complex Nanoscale Permeable Media Across Twelve Orders of Magnitude (e.g., Nanometers to Kilometers): How Do Experimental Efforts and Models Address this Disparity in Scales.