
Explore non-equilibrium many-body physics, focusing on universal aspects and novel phases of matter beyond equilibrium paradigms. Discover connections between statistical physics, AMO, condensed matter, and high-energy physics.

Exploring non-equilibrium dynamics in dipole- and higher-moment conserving systems, focusing on universal behaviors, fractal excitations, and novel phases of matter far from equilibrium.

Explore quantum simulators and non-equilibrium many-body physics in optical lattices using sound. Discover novel phases of matter, universality classes, and connections between diverse fields of physics.

Explore the convergence of a dilute gas to the fluctuating Boltzmann equation, examining empirical measure fluctuations and their convergence to a Gaussian process for short and long time periods.

Explore efficient machine learning techniques for solving quantum many-body problems, focusing on provable methods and their applications in computational physics and quantum computing.

Explore statistical learning theory and Ising models, focusing on sample complexity and efficient algorithms for learning in high-dimensional settings.

Explore cutting-edge techniques for analyzing neural population dynamics using sequential auto-encoders, with insights from Google researcher David Sussillo.

Explore how cortical areas communicate through subspaces, examining neural population dynamics and inter-area interactions in visual processing using advanced data analysis techniques.

Explore the neural circuitry of basal ganglia and its role in reinforcement learning, focusing on representation, coding, and computation in neural networks.

Explore the fusion of AI and scientific computing for predicting and controlling complex fluid systems, with insights on novel algorithms and the importance of interdisciplinary expertise.

Explore machine learning techniques for analyzing cryo-EM images to determine protein structure and dynamics, focusing on the cryoDRGN algorithm and its applications in structural biology.

Explore machine learning applications in electron microscopy, focusing on data modeling and neural networks for distortion compensation in experimental datasets.

Explores machine learning approaches for solving the phase problem in Bragg Coherent Diffractive Imaging, discussing current methods, challenges, and potential ML solutions for 2D and 3D data inversion.

Explore nonlinear reduced basis methods and optimal transport for efficient electronic structure calculations, focusing on a 1D toy model with potential extensions to larger systems.

Explore symmetry-aware machine learning models for atomic interactions, focusing on E(3)-equivariant neural potentials and Bayesian force fields for improved accuracy in materials modeling.

Explore the convergence of quantum mechanics and machine learning in molecular simulations, addressing challenges and future developments for complex (bio)molecular systems.

Explore machine learning for nonlinear dynamical systems modeling, focusing on the SINDy algorithm and its applications in fluid dynamics, with emphasis on interpretable and physics-respecting solutions.

Explore gravitational wave observations as a tool for understanding nuclear matter equation of state, focusing on measurable aspects, model-agnostic studies, and implications for neutron star properties.

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 turbulence energy spectrum, from homogeneous isotropic turbulence to stably stratified fluids. Covers universal range, stochastic models, eddy viscosity, perturbation theory, and Bolgiano-Obukhov scaling.

Explore the intersection of biology and physics, covering topics from molecular evolution to ecology. Learn about physical constraints, evolutionary outcomes, and mathematical models in living systems.