SFB 1313 "Interface-Driven Multi-Field Processes in Porous Media"

SFB 1313 is an interdisciplinary Collaborative Research Centre of the University of Stuttgart, consisting of four major project areas (A-D), divided in 17 individual research projects. It is funded by the German Research Foundation (DFG) and affiliated to the Cluster of Excellence "Data-integrated Simulation Science (SimTech)".

Interfaces have a great impact on multi-field processes (flow, transport and deformation) in porous-media systems. SFB 1313 aims to research these interfaces and to gain a fundamental understanding how they affect multi-field processes. An important step is therefore to quantify how the dynamics of fluid-fluid and fluid-solid interfaces in porous-media systems are affected by pore geometry, heterogeneity and fractures. Furthermore, developing experimental knowledge as well as mathematical and computational models will support SFB 1313‘s research.

A01: Molecular detail in ﬂuid simulations: Density Functional Theory within component and momentum balances

A02: Advanced modelling concepts for coupling free flow with porous-media flow

A03: Development of interface concepts using averaging techniques

A05: Pore scale formulations for evaporation, and upscaling to REV scale

B02: Fracturing porous solids with pore content

$B03: Heterogeneous multi-scale methods for two-phase flow in dynamically fracturing porous media logo$ B03: Heterogeneous multi-scale methods for two-phase flow in dynamically fracturing porous media

$B04: Hybrid discrete-continuum models for fractured porous media: model choice and random field/network generation logo$ B04: Hybrid discrete-continuum models for fractured porous media: model choice and random field/network generation

C01: A Lattice-Boltzmann investigation of two-phase electrolyte flow in porous structures with morphology alterations and tunable interfacial wetting behaviour

C02: Upscaling of pore-scale processes involving microstructural evolution

C03: Modelling of material injection processes into porous structures applied to vertebroplasty

C04: Pore-scale and REV-scale approaches to biological and chemical pore-space alteration in porous media

C05: Process-dependent porosity-permeability relations for fluid-solid reactions in porous media

D02: Parallel numerical coupling methods for interface problems

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151 to 160 of 2,994 Results

Coupling MRI and XRCT to resolve structure–transport evolution during enzyme-induced calcite precipitation at the REV scale Feb 20, 2026 - C05: Process-dependent porosity-permeability relations for fluid-solid reactions in porous media Emadi, Samira, 2026, "Coupling MRI and XRCT to resolve structure–transport evolution during enzyme-induced calcite precipitation at the REV scale", https://doi.org/10.18419/DARUS-5650, DaRUS, V1 This dataset supports the study of enzyme-induced calcite precipitation (EICP) in saturated sand columns under constant flow injection. The experiments investigate how CaCO3 precipitation alters pore structure, transport properties, and permeability at the representative elementary volume (REV) scale. The dataset combines magnetic resonance imaging...
CFI1_Day0_Labels.ORSObject Feb 20, 2026 - Coupling MRI and XRCT to resolve structure–transport evolution during enzyme-induced calcite precipitation at the REV scale Unknown - 3.3 GB - MD5: e816a5d1516f6aee455346c90d08dda2 The final labeled XRCT images, this item should be opened with Dragon fly software.
CFI1_Day1_Labels.ORSObject Feb 20, 2026 - Coupling MRI and XRCT to resolve structure–transport evolution during enzyme-induced calcite precipitation at the REV scale HTML - 1.9 GB - MD5: a8b9430be592ebeda103b52f822188c0 The final labeled XRCT images, this item should be opened with Dragon fly software.
CFI1_Day2_Labels.ORSObject Feb 20, 2026 - Coupling MRI and XRCT to resolve structure–transport evolution during enzyme-induced calcite precipitation at the REV scale HTML - 2.0 GB - MD5: 01c2ed43b79b5a6b5742251e75ad177e The final labeled XRCT images, this item should be opened with Dragon fly software.
CFI1_Day3_Labels.ORSObject Feb 20, 2026 - Coupling MRI and XRCT to resolve structure–transport evolution during enzyme-induced calcite precipitation at the REV scale Unknown - 1.9 GB - MD5: 1f26f709e2937870fafb83672e9ab95e The final labeled XRCT images, this item should be opened with Dragon fly software.
CFI1_Day4_Labels.ORSObject Feb 20, 2026 - Coupling MRI and XRCT to resolve structure–transport evolution during enzyme-induced calcite precipitation at the REV scale HTML - 1.9 GB - MD5: cfec93c1dbe48d3067b4f8faf58c19cd The final labeled XRCT images, this item should be opened with Dragon fly software.
CFI1_Day5_Labels.ORSObject Feb 20, 2026 - Coupling MRI and XRCT to resolve structure–transport evolution during enzyme-induced calcite precipitation at the REV scale HTML - 1.8 GB - MD5: a0f5a4a41df3d727c858dd5a888502d3 The final labeled XRCT images, this item should be opened with Dragon fly software.
CFI1_Day6_Labels.ORSObject Feb 20, 2026 - Coupling MRI and XRCT to resolve structure–transport evolution during enzyme-induced calcite precipitation at the REV scale HTML - 1.2 GB - MD5: ed83c0b9e40346a18e285387acb946f5 The final labeled XRCT images, this item should be opened with Dragon fly software.
CFI2_BV.ORSObject Feb 20, 2026 - Coupling MRI and XRCT to resolve structure–transport evolution during enzyme-induced calcite precipitation at the REV scale Unknown - 19.9 MB - MD5: d7dd77a3b1f94ee4a4df0de892184a2b The final labeled XRCT images, this item should be opened with Dragon fly software.
CFI2_Day0_Labels.ORSObject Feb 20, 2026 - Coupling MRI and XRCT to resolve structure–transport evolution during enzyme-induced calcite precipitation at the REV scale Unknown - 578.5 MB - MD5: 127ffe096c5a0d1d88b969b72199f3f6 The final labeled XRCT images, this item should be opened with Dragon fly software.

Coupling MRI and XRCT to resolve structure–transport evolution during enzyme-induced calcite precipitation at the REV scale

Feb 20, 2026 - C05: Process-dependent porosity-permeability relations for fluid-solid reactions in porous media

Emadi, Samira, 2026, "Coupling MRI and XRCT to resolve structure–transport evolution during enzyme-induced calcite precipitation at the REV scale", https://doi.org/10.18419/DARUS-5650, DaRUS, V1

This dataset supports the study of enzyme-induced calcite precipitation (EICP) in saturated sand columns under constant flow injection. The experiments investigate how CaCO3 precipitation alters pore structure, transport properties, and permeability at the representative elementary volume (REV) scale. The dataset combines magnetic resonance imaging...

CFI1_Day0_Labels.ORSObject

Feb 20, 2026 - Coupling MRI and XRCT to resolve structure–transport evolution during enzyme-induced calcite precipitation at the REV scale

Unknown - 3.3 GB -