
Explore advanced quantum mechanics concepts, from mathematical formalism to applications in quantum computing, NMR, and scattering theory. Gain insights into approximation methods and quantum dynamics.

This course covers basic concepts of quantum mechanics and mathematical preliminaries, eigenvalues, expectation values, measurement and the uncertainty principle, time evolution of wavepackets, 1-dimensional potential well problems

Comprehensive introduction to quantum mechanics, covering linear vector spaces, postulates, uncertainty principle, harmonic oscillators, angular momentum, wave mechanics, and perturbation theory.

Explore quantum mechanics through topics like angular momentum, harmonic oscillators, and perturbation theory. Gain insights into advanced concepts and practical applications in physics.

Explore the dynamics of network-coupled oscillators, examining fluctuations and their impact on complex systems behavior and stability.

Explore enzyme-substrate reactions using separation of timescales and perturbation analysis to derive solutions and simplify complex biological systems.

Comprehensive exploration of quantum mechanics, covering axioms, mathematical foundations, operators, spectra, and applications like spin and harmonic oscillators. Ideal for advanced physics students.

Explore mixed hard Lefschetz theorem and Hodge-Riemann relations in smooth valuations, generalizing Alexandrov-Fenchel inequality for convex bodies using operator perturbation theory.

Explorez les avancées récentes dans la compréhension des amplitudes de cordes et leurs liens avec les équations de Knizhnik-Zamolodchikov, en mettant l'accent sur les relations entre cordes ouvertes et fermées.

Explore advanced concepts in resurgence theory, focusing on applications and recent developments in mathematical physics and quantum mechanics.