
Explore uniform bounds for multilinear singular integrals with Olli Saari, delving into advanced mathematical concepts and their applications in analysis.

Explore spectral multipliers and wave equations for sub-Laplacians in this advanced mathematical lecture by Alessio Martini from Politecnico di Torino.

Explore advanced concepts in spectral multipliers and wave equations for sub-Laplacians, focusing on cutting-edge mathematical research and applications.

Delve into K-theory of group C*-algebras, exploring its applications in topology, representation theory, and elliptic operators. Suitable for graduate students with Hilbert space theory background.

Explore advanced concepts in K-Theory and C*-Algebras with Professor George Elliott, delving into operator algebras and their applications in mathematics.

Explorez les méthodes de théorie du potentiel pour les opérateurs de Schrödinger déterministes, présentées par Wilhelm Schlag de l'Université Yale.

Explore analytic techniques in dynamics and geometry, focusing on the Feynman propagator and self-adjointness with Stanford's A. Vasy.

Explore groundbreaking research in Hamiltonian property testing, examining efficient algorithms for quantum systems and the fundamental differences between testing and learning approaches.

Explore groundbreaking AI neural networks VaRONet and MambONet that revolutionize solving Hamiltonian mechanics through operator learning, bypassing traditional differential equations for efficient physical system modeling.

Explore a unified graph-theoretic framework that connects quantum spin systems with free-fermion solutions through frustration graphs, extending Jordan-Wigner transformations and four-fermion model solutions.

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

Explore powers of discrete Laplacians and Hardy-type inequalities in this mathematical conference talk by Borbala Gerhat, delving into advanced concepts in mathematical physics.

Explore the Casimir effect's connection to spectral geometry and microlocal analysis. Learn to define Casimir energy as an operator trace and compute it using boundary layer operator determinants.

Explore dispersive properties of 2D Dirac operators with Aharonov-Bohm potentials, examining flow components and deducing sharp Strichartz estimates for advanced mathematical analysis.

Explore quantum information and data science approaches for modeling classical dynamics, focusing on operator-theoretic techniques and their applications in dynamical systems and climate modeling.

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