
Explore an infinite dimensional manifold of exact solutions for the Navier-Stokes loop equation in decaying turbulence, presented by renowned physicist Alexander Migdal.

Explore the coexistence of Kolmogorov turbulence and pseudo-turbulence in buoyancy-driven bubbly flows, examining their interactions and implications for fluid dynamics research.

Explore connections between turbulence, field theory, and critical phenomena in this advanced physics discussion, featuring insights on scaling, fluid dynamics, and quantum gravity.

Explore extreme clustering phenomena in particulate flow, examining unexpected behaviors and their implications for fluid dynamics and related fields.

Explore self-organization and critical phenomena in geophysical turbulence with Pablo Mininni. Gain insights into complex fluid dynamics and their applications in Earth sciences.

Exploration of field theory and turbulence connections, covering scaling theories, fluid circulation, quantum gravity, and singularities in fluid equations. Bridging fragmented progress in turbulence research.

Explore generalized time-reversal symmetry and effective theories for nonequilibrium matter in this advanced physics lecture, delving into complex concepts at the intersection of field theory and turbulence.

Explore the relaxation dynamics of a 2D quantum vortex gas, examining equilibrium states and collective behavior in quantum fluids. Gain insights into turbulence and vortex dynamics in quantum systems.

Rapid-fire physics talks showcasing cutting-edge research by emerging scientists across diverse fields, from fluid dynamics to particle physics and plasma physics.

Explore Gaussian free field and Schramm-Loewner Evolution in random geometry. Discover connections between these canonical objects and their applications in statistical physics and conformal field theory.

Explore the Gaussian free field and Schramm-Loewner Evolution, two key concepts in random geometry. Learn their applications in statistical physics and connections to critical phenomena.

Explore critical phenomena in φ4 and Blume-Capel models using percolation theory, extending techniques from Ising model analysis to understand phase transitions in these generalized lattice spin systems.

Explore universal randomness in quantum dynamics, deep thermalization, and Hilbert-space ergodicity. Learn about applications in quantum information theory and experimental observations.

Explore relaxation dynamics in disordered quantum systems with on-site dephasing, focusing on imbalance in the XX model and its implications for many-body localization and quantum stability.

Explore mathematical aspects of disordered topological insulators, focusing on 1D classification and the application of algebraic topology to quantum mechanical Hamiltonians.

Explore mathematical aspects of disordered topological insulators, focusing on 1D classification and the application of algebraic topology to quantum mechanical Hamiltonians.

Explore stability and chaos in dynamical last passage percolation, examining energy landscapes, ground states, and the transition from stability to chaos using probabilistic and geometric techniques.

Explore patterns in randomness through physics experiments and discussions, fostering interconnected understanding and problem-solving skills for women pursuing physics careers.

Explore biological dynamics using physics tools to model predator-prey oscillations, ecosystem chaos, and microbial swimming. Learn to predict species competition, population changes, and collective behavior in fluids.

Explore biological dynamics using physics tools to model complex living systems, from predator-prey oscillations to bacterial motility, in this introductory course for undergraduates.

Explore biological dynamics using physics tools to model predator-prey oscillations, ecosystem chaos, and microbial swimming. Learn to predict species competition, population changes, and collective behavior in fluids.