
Explores regularizing effects of transport noise on 3D Navier-Stokes equations, demonstrating improved vorticity control and well-posedness under specific noise conditions.

Explore rough perturbations of Navier-Stokes equations, focusing on solution definitions, well-posedness, and physical relevance in terms of conserved quantities.

Explore fast Fourier spectral methods for solving the Boltzmann equation, addressing computational challenges and showcasing applications in rarefied gas dynamics.

Explores a novel weak convergence approach for analyzing multiscale advection-diffusion models in turbulent diffusion, introducing "convergence along mean flows" and addressing Lagrangian stretching effects on vanishing microscopic lengthscales.

Explores mix-norms and correlation decay rates in complex flows, discussing q-recurrence, q-transience, and their implications for measuring mixing intensity in various systems.

Explore small scale formations in incompressible porous media equations, including infinite-time growth of Sobolev norms and potential finite-time blow-up scenarios.

Explore the fascinating journey of raindrops, from formation to interaction with turbulence in clouds. Discover fluid dynamics, monsoon patterns, and the intricate processes behind precipitation.

Explore gravitational waves from neutron stars, covering detection methods, signal analysis, radiation mechanisms, and fluid dynamics in astrophysical contexts.

Explore hydrodynamic stability concepts, from sand ripples to fluid instabilities. Learn about linear stability analysis, stratification effects, and various instability types in this comprehensive lecture.

Dive into the statistical dynamics of neutrally buoyant particles in turbulent flows, exploring finite-size and shape effects, acceleration properties, and angular dynamics.

Explore Hamiltonian geometry and dynamics in relation to compressible fluids, delving into mathematical concepts and physical applications in fluid mechanics.

Expert panel discusses advances in stellar convection modeling, exploring 3D simulations, observational challenges, and implications for stellar evolution and structure.

Explore granular and fluid instabilities in explosive volcanic eruptions, examining multiphase flows in geophysical contexts through field observations, experiments, simulations, and theoretical approaches.

Exploring puzzling behaviors in natural systems, from creepy to catastrophic, through geophysical and environmental multiphase flows. Insights from field observations, experiments, simulations, and theory.

Explores floc aggregates in muddy suspensions through field and lab observations, contributing to understanding of geophysical and environmental multiphase flows in atmospheric and oceanic systems.

Explore local shear modulus fluctuations in granular beds with Yale's Corey O'hern. Part of a conference on geophysical and environmental multiphase flows, focusing on particle-laden systems in geosciences.

Explores the impact of turbulent coherent structures on seabed evolution, integrating field observations, experiments, and simulations to advance understanding of multiphase geophysical flows.

Experimental and theoretical insights into the flow behavior of immersed granular media, exploring multiphase geophysical phenomena from particle-laden flows to granular material transport over complex surfaces.

Explore the complex interplay between turbulence, clouds, and climate models in this talk by Joao Teixeira. Gain insights into geophysical fluid dynamics and their impact on atmospheric science and climate prediction.

Explore how cloud droplet size influences microphysical and radiative processes in atmospheric science, presented by Adele Igel from UC Davis at a geophysical multiphase flows conference.

Explore cloud systems through complex and idealized models, examining multi-scale physics and dynamics in geophysical flows. Gain insights into atmospheric processes and their broader implications.