
Exploration of prethermal Floquet time crystals, focusing on critical properties, universality, and phase transitions in periodically driven quantum systems.

Explores non-equilibrium many-body physics using quantum simulators, focusing on universal aspects and novel phases of matter far from equilibrium across various fields of physics.

Explores measurement-induced phase transitions in fermion systems, discussing quantum dynamics, phase diagrams, and analytical approaches. Highlights non-equilibrium universality in many-body physics and its implications.

Explore thermalization in quantum chromodynamics, focusing on ab initio approaches and interdisciplinary connections. Discover universal phenomena and the effectiveness of hydrodynamics in various physical systems.

Explores non-equilibrium many-body physics, focusing on superdiffusion, subdiffusion, and integrability in quantum systems. Discusses the XXZ spin chain and integrability-breaking, providing insights into transport phenomena and diffusion.

Exploring dynamical control of electronic interactions in quantum materials through optical techniques, focusing on engineering interactions, modifying Hubbard U, and entanglement spectroscopy in driven systems.

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

Explore probability, geometry, and computation in high dimensions through statistical physics, focusing on key concepts and applications in complex systems analysis.

Explore matrix product states and dynamic message-passing algorithms for modeling network dynamics, reducing computational complexity from exponential to polynomial in system size and duration.

Explore phase transitions in hard-core systems, from basic concepts to advanced topics like fluid-solid transitions in hard spheres and phase changes in long rods. Includes theoretical foundations and computational approaches.

Comprehensive introduction to perturbative QCD for colliders, covering quantum chromodynamics, color theory, gluon fields, asymptotic freedom, and renormalization group equations with practical examples.

Explore turbulence through statistical mechanics, covering energy cascades, Kolmogorov's hypotheses, and connections to phase transitions. Learn about predator-prey dynamics in pipe flow and directed percolation in laminar-turbulent transitions.

Explore topology's role in statistical physics, from Maxwell's equations to magnetic monopoles. Learn about topological quantum numbers and path integral formulation in this advanced lecture.

Explore statistical physics of rare events and large deviations, covering mathematical foundations, equilibrium concepts, coin toss problems, blackbody radiation, and applications in physics and beyond.

Explore nonequilibrium response theory, covering fluctuations, linear response, and the fluctuation-dissipation theorem. Gain insights into equilibrium and dynamic responses in statistical physics.

Explore critical dynamics and Casimir forces in binary fluids through molecular dynamics simulations, focusing on surface properties, scaling behavior, and correlation functions in confined fluid systems.

Explore statistical physics and inference, covering Bayesian methods, error correction, spin glasses, and advanced algorithms like belief propagation. Gain insights into phase transitions and applications in machine learning.

Explore turbulence, time's arrow, and equilibrium-nonequilibrium behavior. Delve into fundamental physics concepts, Kolmogorov's theory, energy transfer, and connections to kinetic theory and cosmology.