
Explore S. Chandrasekhar's contributions to fluid dynamics, scaling in physics, and turbulent mixing through lectures by Katepalli Raju Sreenivasan, covering theoretical concepts and their applications.

Explore connections between microscopic and macroscopic laws in physics, focusing on heat conduction, Fourier's law, and fluctuating hydrodynamics in one-dimensional systems.

Explore turbulent dynamics using Exact Coherent States, revealing coherent structures in experiments, forecasting turbulent evolution, and providing a geometric description of transient turbulence.

Explore shock waves and turbulence in high-speed flows, covering physical modeling, numerical simulations, and applications in aerospace and astrophysics. Learn about shock-turbulence interactions and heat transfer.

Explore turbulent flows in nature and industry, examining mathematical, engineering, and physical perspectives. Learn about analytical, experimental, and numerical tools, and delve into the phenomenology of turbulence.

Explore hydrodynamic theories in biology, focusing on pattern formation in active fluids and the actomyosin cortex. Learn about conservation laws, chemical reactions, and force balance in biological systems.

Explore biological pattern formation through nonequilibrium physics, from snake pigmentation to tissue development. Discover emergence, hydrodynamics, and reaction-diffusion models in this comprehensive lecture on complex biological systems.

Explore stochastic forcing in Boussinesq equations, covering existence, uniqueness, stability, and numerical simulations for fluid dynamics and convection phenomena.

Explore vorticity measures and vanishing viscosity in fluid dynamics, focusing on 2D Navier-Stokes equations and their relation to Euler equations in bounded domains.

Explores Onsager's Conjecture in fluid dynamics, covering energy conservation in Euler equations, compressible fluids, and entropy conservation, with applications to turbulence theory.

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 active matter systems, focusing on topology in biology, active turbulence, and cell division. Learn about liquid crystal hydrodynamics, topological defects, and confinement effects in active systems.

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

Explore physics across scales, from string theory to quantum matter, black holes, and climate, with insights on theoretical developments and real-world applications.

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.