
Explores scale-invariant critical dynamics at eigenstate transitions in many-body quantum systems, focusing on stability and non-equilibrium behavior in coherent time evolution.

Introduction to statistical data analysis and machine learning techniques for neutrino physics research, covering fundamental concepts and applications in experimental analysis.

Spectral gap estimates for random field Ising model: convergence rates, Glauber dynamics, Griffiths phase. Combines stochastic localization and percolation-theoretic coarse-graining techniques.

Explore 3D dimer tilings and their large deviations principle, comparing with 2D results and examining unique challenges in higher dimensions through simulations and mathematical insights.

Explore minimal surfaces in random environments, their geometric properties, and connections to disordered systems. Gain insights into surface delocalization, localization, and fluctuations across dimensions.

Explore quantum crystals and their potential relevance to rhombohedral graphene in this expert talk on anomalous Hall crystals, gapless quantum systems, and strongly correlated states.

Explore a decade-long journey through quantum physics, from gravitational anomalies to generalized symmetry, culminating in a comprehensive theory of strongly correlated gapless states.

Explore holographic models of metals in this conference talk by Dominic Else. Gain insights into strongly correlated gapless quantum systems and their theoretical understanding in condensed matter physics.

Explore quantum phase transitions in 2D metals with Harris disorder. Subir Sachdev presents a universal theory, discussing implications for strongly correlated gapless quantum systems and recent advancements in the field.

Exploring noise in biological and artificial neural networks, its impact on computations, and new methods for analyzing stochastic network representations and trial-to-trial variability.

Explore climate dynamics using Linear Response Theory. Learn how this mathematical framework helps predict and analyze complex climate system behaviors, offering insights into future climate scenarios.

Explore hybrid filtering for Lagrangian data assimilation and tipping points in Earth systems. Gain insights into advanced geophysical fluid dynamics techniques and their applications in climate science.

Explore Hitchin systems with Marina Logares, delving into their mathematical properties and applications in algebraic geometry and theoretical physics.

Explore statistical mechanics for robust sparse equation discovery and optimal sensor placement, with applications in nuclear digital twins and high-dimensional field reconstruction.

Explore coupled oscillators and matrix applications in physics. Gain insights into theoretical aspects through hands-on experiments and open-ended discussions. Designed for women pursuing physics careers.

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 critical behavior in systems with boundaries and defects through numerical studies. Gain insights into strongly correlated gapless quantum many-body systems and their theoretical implications.

Explores oceanic energy transfers across scales using observational evidence and mechanisms. Discusses multi-scale interactions, turbulent mixing, and energy cycle in Earth's climate system.

Explores small-scale instabilities in inertia-gravity waves, examining their impact on atmospheric and oceanic dynamics. Discusses theoretical perspectives and implications for geophysical fluid dynamics.

Explore Reynolds decomposition for analyzing heat waves, focusing on atmospheric dynamics and energy transfers across scales. Gain insights into geophysical fluid dynamics and climate modeling techniques.

Explores submesoscale kinetic energy fluxes in geophysical fluid dynamics using observational data, contributing to understanding of multi-scale energy transfers in Earth's climate system.