
Explore gravitational lensing model fitting techniques, from traditional methods to innovative graphical modeling, and learn about PyAutoFit for streamlined probabilistic programming.

Explore precision cosmology through N-body simulations, understanding their history, development, and key applications in unraveling the universe's mysteries.

Explore Bayesian statistics, likelihood sampling, chi-square, and covariance matrix in cosmology. Learn parameter estimations in 2-point statistics and Markov Chain Monte Carlo.

Explore self-testing in bipartite Bell scenarios, focusing on maximally entangled states and projective measurements. Learn about representation theory and spectral analysis in quantum systems.

Explore the geometric description of quantum correlations using symplectic and algebraic tools. Gain insights into quantum entanglement and its unique features distinguishing quantum from classical systems.

Explore quantum correlations using symplectic and algebraic geometry. Delve into entanglement, nonlocal properties, and the Einstein-Podolsky-Rosen analysis of quantum theory completeness.

Explore the Entropic Dynamics framework for reconstructing Quantum Mechanics, focusing on ontic and epistemic variables, probability distributions, and the derivation of key quantum principles.

Explore the Feynman propagator in Quantum Field Theory, examining its definitions and applications across various spacetime models, including stationary, FLRW, and de Sitter.

Explore quantum contextuality without measurement incompatibility, challenging conventional understanding. Delve into a new convex-geometric framework for generalized contextuality in quantum systems.

Explore advanced concepts in relativistic physics, including velocity addition, time dilation, coordinate transformations, and pseudo-Riemannian manifolds.

Explore the Schwarzschild metric's properties, including gravitational effects, geodesics, and orbits in this advanced graduate-level physics lecture on general relativity.

Explore Schwarzschild metric, event horizons, and black hole physics in this graduate-level lecture. Delve into perihelion precession, coordinate systems, and global structure of Schwarzschild solutions.

Explore advanced topics in fluid dynamics and differential geometry with renowned mathematician Camillo De Lellis, covering Onsager's theorem, Euler equations, and isometric embeddings.

Explore advanced mathematical techniques for analyzing Euler equations in fluid dynamics, focusing on differential inclusions and the Onsager conjecture.

Explore particle methods for modeling reactive flows in complex geometries, focusing on pore-scale applications in rock matrices and evolving fluid-solid interfaces.

Explore holomorphic-topological twists in supersymmetric quantum field theories, examining mathematical properties, formality results, categorical wall-crossing, and 't Hooft expansion approaches.

Explore irreducible lattices in semi-simple Lie groups of higher rank and their properties in this advanced mathematical lecture by Sebastian Hurtado Salazar.

Explore mapping class groups of infinite-type surfaces and their actions on hyperbolic graphs in this advanced mathematical lecture by Priyam Patel.

Explore weak limits for entropic optimal transport, covering parametric cases, duality, proofs, and connections to improved CLT and convex optimization.

Explore algebraic and logical perspectives on generalized words, comparing approaches and examining key concepts in discrete mathematics and theoretical computer science.

Explore data-driven approaches for high-fidelity computational fluid dynamics in this advanced lecture on scientific machine learning and CFD techniques.