
Explores mathematical models for particle sedimentation in fluids, from microscopic Navier-Stokes equations to macroscopic Vlasov-Stokes systems, focusing on spherical and non-spherical particles with and without inertia.

Explore the Vlasov-Maxwell-Boltzmann system and its convergence to the Navier-Stokes-Fourier-Maxwell system with Ohm's law, including uniform estimates and classical solution analysis.

Explore axisymmetric Euler equations, discussing well-posedness, qualitative properties, and renormalization results for vanishing viscosity solutions. Examine energy conservation in ideal fluid dynamics.

Explores recent findings on unstable Muskat problem in porous media and vortex sheet problem in Euler equations, discussing h-principle, convex integration, and globally dissipative weak solutions.

Explore convex integration and mixing flows in hydrodynamics, focusing on the Muskat problem and alternative approaches to understanding fluid behavior in unstable regimes.

Explore cloud parameterization and system-resolving models in climate science. Gain insights into innovative approaches for modeling complex atmospheric processes and their implications.

Explores CO₂-induced reactions on debonded well cement-casing interfaces through reactive flow-through experiments, examining permeability changes and microstructural effects for carbon storage applications.

Explore the link between wastewater injection and seismic activity through pore pressure analysis, covering key factors, physics, and modeling techniques.

Explore deep Earth volatile cycles and hydromechanical modeling of fluid flow in the lower crust with expert presentations on modern and ancient processes shaping our planet's interior.

Explore how Kubernetes, Kubeflow, and OpenFOAM can optimize computational fluid dynamics analysis, improving resource utilization and operational efficiency in high-performance computing environments.

Explore the dynamics of charged macromolecules in this comprehensive lecture, covering fundamental concepts and advanced theories in soft matter physics and polymer science.

Explores unique aspects of direction-reversing active Brownian motion, discussing novel features and implications for soft and living matter physics. Highlights cutting-edge research in non-equilibrium systems.

Explore the Mpemba effect in colloidal systems, focusing on population statistics and metastability. Gain insights into this counterintuitive phenomenon and its implications for soft matter physics.

Explore morphogenetic decoding of positional information in biological systems, examining how cells interpret spatial cues during development and tissue formation.

Explore the dynamics of chemically active flexible polymers in this advanced lecture, covering theoretical concepts and applications in soft matter physics and materials science.

Experimental validation of static correlations in supercooled liquids using soft-pinning techniques, exploring fundamental concepts in soft matter physics and their applications to material design.

Explore non-reciprocality, translational order, and chirality in active matter systems. Gain insights into fundamental concepts and emerging research in soft and living matter physics.

Explore turbulence in living fluids and its impact on various states of matter. Gain insights into the fascinating intersection of physics, biology, and fluid dynamics in this engaging lecture.

Explore the physics of wet foams, including their structure, properties, and behavior. Gain insights into this fascinating area of soft matter physics from expert Douglas Durian.

Explore the physics of dry foams in this lecture by Douglas Durian, covering fundamental concepts and properties of these unique structures in soft matter physics.

Explore ferronematics and living liquid crystals, focusing on their unique properties and behavior when combined with inclusions. Learn about cutting-edge research in soft matter physics.