
Explore rough perturbations of Navier-Stokes equations, focusing on solution definitions, well-posedness, and physical relevance in terms of conserved quantities.

Explore stochastic quantisation of Yang-Mills theory, covering key concepts like canonical sections, connections, and covariant derivatives in non-Abelian gauge theories.

Exploring quantum dynamics to Vlasov equation: from many-body systems to kinetic theory, covering mean-field limits, semiclassical approaches, and convergence rates for interacting fermions.

Explore fast Fourier spectral methods for solving the Boltzmann equation, addressing computational challenges and showcasing applications in rarefied gas dynamics.

Gradient flow approach to linear kinetic equations, exploring entropy dissipation inequality and large deviation principles. Discusses potential extensions to non-linear cases and connections to Markov chains.

Explores a novel weak convergence approach for analyzing multiscale advection-diffusion models in turbulent diffusion, introducing "convergence along mean flows" and addressing Lagrangian stretching effects on vanishing microscopic lengthscales.

Explore clusters, loops, and trees in the Ising model with Fields Medalist Stanislav Smirnov, covering topics from conformal field theory to discrete complex analysis and random cost representation.

Explore quantum toric geometry, a generalization of classical toric geometry using quantum tori, allowing for irrational fans. Learn foundations and motivations behind this advanced mathematical concept.

Explore quantum toric geometry, a non-commutative generalization of toric geometry. Learn about stacks, quantum tori, and quantum toric varieties, building on foundations of traditional toric geometry.

Explore the spectral problem of quantum mechanical operators in complex Planck's constant scenarios, focusing on toric Calabi-Yau threefolds and their implications.

Explore cosmic censorship conjectures in general relativity, covering singularities, wave equations, and Penrose diagrams. Gain insights from expert Mihalis Dafermos on this advanced topic in theoretical physics.

Explore asymptotic flatness, positive mass theorem, and scalar curvature in static black hole uniqueness theorems with expert Carla Cederbaum.

Explore cosmic censorship conjectures in general relativity, focusing on global high publicity, null infinity, and the Hawking pass, with expert Mihalis Dafermos.

Explore uniqueness theorems for static black holes, covering classical extensions, spacetime cross-sections, and proof techniques in this advanced mathematics lecture.

Explore the AdS-CFT conjecture from a general relativity perspective, covering supergravity, universal sectors, and Hawking temperature in this advanced physics lecture.

Explore strong and weak cosmic censorship conjectures in general relativity, examining singular behavior, spacelike singularities, and spherical symmetry through Penrose diagrams.

Explore black hole thermodynamics, focusing on stationary black holes, their laws, and stability, with insights from General Relativity and expert Robert Wald.

Explore geometric properties of spacetime, including minimal hypersurfaces, stability, and boundary integrals. Gain insights into linear and nonlinear models in this advanced mathematics lecture.

Explore comparable-mass binary systems, post-Newtonian theory, and relaxed Einstein equations in the context of gravitational waves and black hole physics.

Explore geometric properties of spacetime, including theorems on topology, dihedral angles, and scalar curvature, with insights on the positive mass theorem and Gauss-Bonnet theorem.

Explore Kerr black holes, binary systems, and gravitational waves with expert Nicolas Yunes. Delve into advanced concepts like Killing tensors and zero angular momentum observers in this comprehensive lecture.