This review provides an overview of concepts and approaches for the quantification of
passive, non-reactive solute mixing in steady uniform porous media flows across scales …

Multiphase displacement in porous media can be adjusted by micro/nanoparticle
suspensions, which is widespread in many scientific and industrial contexts. Direct …

Viscoelastic fluids are a common subclass of rheologically complex materials that are
encountered in diverse fields from biology to polymer processing. Often the flows of …

Transitioning our society to a sustainable future, with low or net-zero carbon emissions to the
atmosphere, will require a wide-spread transformation of energy and environmental …

Viscoelastic flows through porous media become unstable and chaotic beyond critical flow
conditions, impacting widespread industrial and biological processes such as enhanced oil …

Complex and active fluids find broad applications in flows through porous materials.
Nontrivial rheology can couple to porous microstructure leading to surprising flow patterns …

The microfluidic flow is typically laminar due to the dominant viscous effects. At Reynolds
numbers far below 1 (Re≪ 1), the fluid inertia can be neglected. For the steady flow of …

Many energy, environmental, industrial, and microfluidic processes rely on the flow of
polymer solutions through porous media. Unexpectedly, the macroscopic flow resistance …

Viscoelastic flows through microstructured geometries transition from steady to time
dependent and chaotic dynamics under critical flow conditions. However, the implications of …

Polymer solutions are often injected in porous media for applications such as oil recovery
and groundwater remediation. As the fluid navigates the tortuous pore space, elastic …