
Explore the AdS-CFT conjecture through a general relativity lens, delving into advanced concepts in theoretical physics and string theory with expert Toby Wiseman.

Explore the AdS-CFT conjecture from a general relativity perspective in this advanced physics lecture by Toby Wiseman from Imperial College London.

Explore the asymptotic behavior of cosmologies with positive cosmological constant, delving into advanced concepts in theoretical physics and cosmology.

Explore advanced mathematical concepts related to u-plane integrals and Donaldson invariants with expert Jan Manschot from Trinity College Dublin.

Explore advanced concepts in gauge theories, focusing on Coulomb branches in 3d N=4 systems. Delve into complex mathematical structures and their applications in theoretical physics.

Explore advanced mathematical concepts related to u-plane integrals and Donaldson invariants with expert Jan Manschot from Trinity College Dublin.

Explore advanced concepts in gauge theories, focusing on Coulomb branches in 3d N=4 systems. Delve into mathematical physics with expert insights from Hiraku Nakajima.

Explore Coulomb branches in 3d N=4 gauge theories, delving into advanced concepts of quantum field theory and supersymmetry with expert insights from Hiraku Nakajima.

Explore wind-tree billiards diffusion and Hodge Lyapunov exponents in this advanced mathematics lecture by Anton Zorich, delving into complex dynamical systems and geometric analysis.

Explore advanced concepts of plasma collisions and the Landau equation, delving into mathematical models for complex physical phenomena.

Explore the foundations of mathematical relativity, scalar curvature, and synthetic Lorentzian geometry in this thought-provoking lecture by Fay Dowker from Imperial College London.

Explores stochastic quantization of 2D scalar fields with exponential interaction, focusing on elliptic and parabolic Euclidean approaches and related random PDEs with multiplicative noise.

Explore ground state properties of homogeneous, interacting Fermi gas in mean-field regime, focusing on correlation energy and recent progress in understanding its precise value through rigorous bosonization techniques.

Exploration of reverse Hardy-Littlewood-Sobolev inequalities, examining parameter ranges, optimal functions, and potential concentration, with connections to free energy functionals and nonlinear diffusion equations.

Exploring alternatives to density functional approximations in quantum mechanics, focusing on extrapolating model families and generalizing Kato's cusp condition for improved accuracy in electronic systems.

Explore quantum continuum mechanics for many-body systems, focusing on anti-adiabatic approximation and its applications in calculating excitation energies and modeling quantum condensates.

Explore quantum electrodynamic modeling of superconducting systems with Princeton's Hakan Tureci, covering multiscale approaches in quantum mechanics and their applications.

Explore quantum embedding theories and their application to twisted transition metal dicalcogenides, focusing on the Hubbard model and its relevance to experimental observations in materials science.

Explore mathematical models of electronic structure, focusing on quantum mechanics applications in materials science and chemistry, presented by Duke University expert Jianfeng Lu.

Explore global existence for wave equations on product spaces, a model for Einstein equations with compact dimensions in Kaluza-Klein theory. Presented by Cécile Huneau at IPAM's gravitation workshop.

Explores the Penrose inequality in general relativity, focusing on null hypersurfaces and perturbed Schwarzschild black holes. Discusses recent breakthroughs and ongoing challenges in this field of gravitational physics.