
Explore large particle systems with Coulomb repulsion, examining mean-field dynamics and statistical mechanics using modulated energy approaches and free energy expansions.

Explore large particle systems with Coulomb repulsion, covering mean-field dynamics and statistical mechanics using modulated energy and free energy expansion approaches.

Explore Coulomb-type repulsion in large particle systems, covering mean-field dynamics and statistical mechanics with focus on free energy expansion and fluctuations.

Explore large particle systems with Coulomb repulsion, examining mean-field dynamics and statistical mechanics using modulated energy approaches and free energy expansions.

Explore novel patterning routes in neural fields with rebound currents, uncovering innovative approaches to understanding brain dynamics and neural networks.

Explore Fokker-Planck equations in neuron networks, focusing on time periodic solutions and their implications for neural dynamics.

Explore the complex dynamics of retinal waves, uncovering their non-linear behavior and implications for visual system development.

Explore noise-driven bifurcations in neural field systems, focusing on grid cell network modeling and their implications for spatial navigation.

Explore projection techniques for analyzing complex neurobiological networks, focusing on applications in neuroscience research and computational modeling.

Explore metastable spiking networks in the replica-mean-field limit, focusing on advanced concepts in neural dynamics and statistical physics.

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 new insights on multiple equilibria emergence in large, highly interactive ecosystems, focusing on theoretical advancements and practical implications.

Explore Hamiltonian flow stability, twisting phenomena, and their applications in fluid dynamics with insights from Duke University researcher Tarek Elgindi.

Explore black hole physics, from singularities to spectroscopy, with insights on testing the Kerr nature, nonlinearities, and bouncing geometries in this advanced astrophysics lecture.

Explore exact solutions for strongly interacting one-dimensional systems under confinement, delving into advanced quantum physics concepts and mathematical techniques.

Explore lattice recursions and their connection to integrability in mathematics, featuring insights from Jacques Hurtubise of McGill University.

Explore the mathematical concept of lifting torus actions to integrable systems, delving into advanced topics in Hamiltonian geometry and dynamical systems.

Explore the emergence of multiflocks in collective dynamics with Professor Eitan Tadmor, delving into mathematical insights on group behavior and movement patterns.

Explore 3D steady Euler flows characterization using commuting zero-flux homologies. Extends Sullivan's work, proves impossibility of plug constructions, and discusses higher-dimensional applications.