
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 data mining techniques for many-body systems, from equilibrium to driven states. Learn to analyze complex quantum phenomena and their applications in theoretical physics.

Explore Floquet engineering and topological nonlinear optics in this talk by Takashi Oka, covering advanced concepts in quantum systems and their applications in optics and materials science.

Exploring connections between Fock-space return probability and real-space spin autocorrelations in complex quantum systems, with applications to driven and localized systems.

Explore cavity quantum electrodynamics and its application in controlling quantum materials, focusing on theoretical aspects and potential experimental implications.

Explore Floquet insulators and lattice fermions in this talk by Thomas Iadecola, part of a program on periodically and quasi-periodically driven complex systems in quantum physics.

Explore spectral kissing in squeeze-driven Kerr oscillators and its impact on dynamics. Gain insights into complex quantum systems and their behavior under periodic driving.

Explore parametric oscillators from single to quantum systems in this physics lecture, covering fundamental concepts and advanced applications in complex driven systems.

Explore quantum geometry in non-equilibrium Moire materials, focusing on terahertz-driven quantum matter, Floquet time crystals, and localization-delocalization physics in quasi-periodically driven systems.

Explore infinite randomness and quasiperiodic fixed points in measurement-induced phase transitions, delving into complex quantum systems and their dynamic behaviors.

Explore superradiance in ordered atomic arrays, examining collective light-matter interactions and their implications for quantum optics and atomic physics.

Explore numerical techniques and thermodynamic cycles for periodically refreshed baths, advancing understanding of driven complex systems and their applications in quantum physics.

Explore caustics and branched flow in driven systems, examining periodic and quasi-periodic dynamics. Gain insights into complex physical phenomena and their theoretical foundations.

Explore quantum scars in pure lattice gauge theories, examining their dynamics, localization-delocalization physics, and implications for complex quantum systems.

Explore ergodicity breaking in flatbands with Alexei Andreanov. Gain insights into complex quantum systems, localization physics, and dynamics of periodically driven systems.

Explore quantum state-generating machines and their applications in complex systems, focusing on periodically and quasi-periodically driven quantum phenomena and their theoretical implications.

Explore quantum supremacy and phase transitions in analog quantum many-body systems. Gain insights into cutting-edge research on quantum simulation and its implications for complex quantum systems.

Explore non-equilibrium dynamics of scalar fields, focusing on (pre)thermal states. Gain insights into complex systems driven by periodic and quasi-periodic forces in quantum physics.

Explore advanced topology concepts in multilevel systems and out-of-equilibrium phenomena. Delve into cutting-edge research on complex quantum systems and their dynamic behaviors.

Explore new topological phases in quasi-periodically driven systems, examining localization-delocalization physics and their implications for quantum matter and complex systems.