
Explore applications of machine learning in string theory and mathematical physics, focusing on black holes and higher-spin holography.

Explore cutting-edge research in general relativity, mathematical physics, and differential geometry with insights on black holes, gravitational instantons, and cosmological models.

Explore recent findings on 2D water wave dynamics with angled crests, delving into their unique motion and characteristics.

Explore the genus two summand of the cosmological constant in perturbative supersymmetric String Theory, focusing on its rigorous definition and computation.

Explore the connection between scattering amplitudes and the Amplituhedron, a novel mathematical concept generalizing convex polytopes into Grassmannians.

Explore the solution to the Painleve conjecture in celestial mechanics, focusing on noncollision singularities in the four-body problem of Newtonian mechanics.

Explore how string field theory resolves ambiguities in string theory computations, focusing on D-instanton corrections and matrix model comparisons.

Explore the Nahm transform's origins and recent extensions to ALF gravitational instantons, enhancing understanding of Yang-Mills instanton moduli spaces.

Explore the rigorous connection between incompressible Couette flow and the Boltzmann equation through novel anisotropic estimates in the Wiener algebra function space.

Explore the emergence of 1+1D conformal field theory from large N limit of 2+1D Chern-Simons matrix models, including Kac-Moody algebra and holographic duality.

Explore the connection between injective ground states of gapped Hamiltonians and TQFT, bridging topological orders with constructive quantum field theory.

Explore Inti.jl for solving volume and boundary integral equations in mathematical physics. Learn about its user-friendly features, integration capabilities, and specialized routines for handling singular kernels.

Explore advanced numerical methods for simulating Hamiltonian systems using Mono Implicit Runge-Kutta techniques, enhancing accuracy and efficiency in scientific computations.

Explore anomalous dissipation and the Strong Onsager Conjecture, focusing on intermittent pressure in turbulent flows. Delve into energy transfer mechanisms and mathematical descriptions of turbulence.

Explore anomalous dissipation and the Strong Onsager Conjecture, focusing on local energy inequality in turbulent flows and energy transfer between scales.

Explore anomalous dissipation and the Strong Onsager Conjecture in turbulent flows, focusing on L^3 convex integration techniques for mathematical analysis of energy transfer.

Explore quantum vortex knots and links under zero helicity condition in this advanced mathematics lecture by Renzo Ricca.

Explore Lyapunov exponents in Navier-Stokes equations through Alex Blumenthal's conference talk, delving into probabilistic techniques for random and time-dependent dynamical systems.

Explore odd fluids and their mathematical properties in this conference talk by Francesco Fanelli at CIRM's MathFlows meeting.

Explore the Rayleigh-Bénard problem for compressible fluid flows, focusing on asymptotic stability, trajectory space, and ergodic averages in energetically closed systems.

Explore the Landau Hamiltonian with delta-potentials on curves in this mathematical conference talk. Gain insights into spectral analysis for quantum Hamiltonians.