
Explores overconvergent cohomology, eigenvarieties, and coherent sheaves in p-adic automorphic forms. Discusses a conjecture on computing coherent sheaves using Galois representation stacks and its relation to p-adic Langlands program.

Explore a novel local and group-theoretic approach to the Breuil-Mezard Conjecture, connecting it to quantum groups and homological mirror symmetry in algebraic number theory.

Explore abstract 6-functor formalisms and their application to representation theory of locally profinite groups, shedding light on classical results and p-adic Lie group representations.

Explore the Breuil-Mezard conjecture's impact on local deformation rings and its connection to Serre's conjecture, focusing on recent advancements in moduli stack theory and p-adic Galois representations.

Explore p-adic group representations and Hecke algebras, focusing on supercuspidal representations, Bernstein blocks, and their equivalence to depth-zero blocks through Hecke algebra isomorphisms.

Explore mod p cohomology of Lubin-Tate and Drinfeld spaces, and Hecke eigenspaces in quaternionic Shimura curves, using recent advancements in functor formalism and finiteness results.

Explore numerical methods for solving partial differential equations, focusing on techniques essential for gravitational wave astronomy and computational relativity.

Explore the Fargues-Scholze conjecture for GL_n, focusing on irreducible parameters with integral coefficients. Learn about category localizations and L-packets in this advanced mathematical lecture.

Explore the explicit mod-ℓ categorical local Langlands correspondence for depth-zero supercuspidal representations of GL_2, focusing on moduli spaces and smooth representations.

Explore the concept of covering dimension in Cuntz semigroups, a key topic in operator algebra. Gain insights into this advanced mathematical subject through an expert presentation.

Explore the Global Glimm Problem in operator algebra with Eduard Vilalta, delving into advanced mathematical concepts and their applications in this seminar from the Fields Institute.

Explore numerical methods for solving partial differential equations, focusing on techniques essential for gravitational wave astronomy and computational relativity.

Explore topological descriptors in shape comparison, focusing on augmented vs non-augmented types and their ability to faithfully represent simplicial complexes. Accessible discussion with interesting open questions and visuals.

Explore fundamental concepts and numerical techniques for solving partial differential equations, essential for modeling complex physical phenomena in gravitational-wave astronomy and astrophysics.

Exploring topological concepts in digital sound synthesis, from oscillatory algorithms to wave equations and filter theory, with applications in computational audio generation.

Explore scalable computation of extremum graphs, a simplified topological descriptor for scalar functions, with applications in visualization and shape analysis. Learn efficient parallel algorithms for large datasets.

Explore the intricacies of small-set expansion in the 2-degree short-code graph, focusing on an easier version of this complex mathematical concept.

Explores product mixing in special unitary groups, solving Gowers' problem and its applications in quantum communication, with sharp results on subset distributions in SU_n.

Explore Ramanujan's mathematical genius through a deep dive into one of his beautiful identities, unraveling complex concepts and revealing the workings of a brilliant mind.

Explore Conway's method of tangling ropes, associating each tangle with a rational number. Learn how twists and rotations create tangles, and discover their remarkable additive properties through interactive demonstrations.

Explore how Representation Theory extends Boolean function theory, leading to new insights in theoretical computer science and extremal combinatorics.