
Explore metastable systems of spiking neurons and their time averages in this concise neuroscience lecture by Morgan André.

Explore recent findings on mean field theory applied to spiking neuron networks, presented by Romain Veltz from Inria Sophia Antipolis.

Explore spontaneous oscillations in excitatory neural networks through mean field analysis, uncovering insights into complex neuronal dynamics.

Explore mathematical physics of weakly interacting bosons with Jan Solovej, covering key concepts and recent developments in this advanced field.

Explore protein coevolution models, examining sampling techniques, physical principles, and evolutionary dynamics in molecular biology.

Explore classical and quantum atomic modeling using MIT's toolkit. Perform molecular dynamics, Monte Carlo simulations, and quantum chemistry computations. Learn practical applications for various physics and chemistry courses.

Explore advanced supersymmetric theories and exact methods with Giulio Bonelli in this in-depth lecture, focusing on cutting-edge concepts and mathematical techniques in theoretical physics.

Explore nuclear physics concepts, focusing on the equation of state and its connections to nuclear structure and astrophysics in this advanced lecture.

Explore non-equilibrium quantum matter and its relation to quantum entanglement in this advanced physics lecture by Dmitry Abanin.

Explore non-equilibrium quantum matter and its relation to quantum entanglement in this advanced physics lecture by Dmitry Abanin.

Explore non-equilibrium quantum matter and its relation to quantum entanglement in this advanced physics lecture by Dmitry Abanin.

Explore non-equilibrium quantum matter and its relation to quantum entanglement in this advanced physics lecture by Dmitry Abanin.

Explore quantum many-body systems and their dynamics with a focus on entanglement, thermalization, and out-of-equilibrium phenomena in this advanced physics lecture.

Explore model-independent methods for calculating bubble wall velocities in local thermal equilibrium, enhancing understanding of phase transitions in early universe cosmology.

Explore hydrodynamization and non-equilibrium attractors in high-temperature QCD plasma, focusing on shear viscosity, equations of motion, and attractor solutions.

Explore non-equilibrium dynamics and attractors in high-temperature QCD plasma, focusing on hydrodynamization processes and their implications for quark-gluon plasma evolution.

Explore quantum thermodynamics and relativistic hydrodynamics in high-energy physics, delving into advanced concepts and their applications in particle collisions and cosmology.

Explore non-equilibrium dynamics and attractors in high-temperature QCD plasma, focusing on hydrodynamization processes and their implications for quark-gluon plasma behavior.

Explore non-equilibrium dynamics in high-temperature QCD plasma, focusing on hydrodynamization and attractors. Gain insights into advanced concepts in quantum chromodynamics.

Explore hydrodynamization and non-equilibrium attractors in high-temperature QCD plasma, examining cutting-edge concepts in quantum chromodynamics and fluid dynamics.

Explore equilibrium dynamics and gradient descent in disordered systems, focusing on theoretical concepts and practical applications in statistical physics and optimization.