
Explore alternative viewpoints on quantum mechanics, including algebraic and geometric approaches. Gain insights into particle concepts, scattering, and L-functionals for solving infrared problems in quantum electrodynamics.

Explore WRT invariants, Resurgence conjecture, and Teichmüller TQFT in quantum Chern-Simons theory, with detailed examples and new formulations.

Explore Quantum Chern-Simons Theory, covering WRT invariants, Resurgence conjecture, and Teichmüller TQFT, with detailed examples and discussions.

Explore resurgence in quantum Chern-Simons theory, connecting WRT quantum invariants to BPS q-series. Uncover complex Chern-Simons invariants and prove quantum modularity for Seifert fibered homology spheres.

Explore recent advances in classifying gapped lattice systems and their implications for quantum matter phases, focusing on Short-Range Entangled phases and higher Berry classes.

Explore advanced concepts in topological phases of quantum lattice systems, including higher Berry classes, SRE phases, and their classification using TQFT and homotopy groups.

Explore Anderson localization and its implications for interacting quantum particles in random potentials. Gain insights into wave equations, quantum phenomena, and challenges in physics research.

Explore recent advances in classifying gapped lattice systems and their implications for quantum matter phases, focusing on Short-Range Entangled phases and higher Berry classes.

Explore categorified crystal bases on localized quantum coordinate rings, focusing on monoidal categories, quiver Hecke algebras, and crystal structures in quantum algebra.

Explore tensor models as a generalization of matrix models in quantum field theory, focusing on large N limit and double scaling mechanisms, with applications to holography.

Explore quantum gravity insights from Google's quantum computer with Brian Greene and researchers, discussing Einstein's papers, wormholes, and the future of quantum computation.

Explore quantum jump patterns in Hilbert space and their impact on stochastic quantum thermal machines, advancing understanding of quantum information and control.

Explore aperiodic devices' potential in quantum photonics, examining their unique properties and applications for advancing quantum information and control technologies.

Discover nonlinear phenomena in superconductivity and quantum sensing, exploring cutting-edge research and applications in quantum information and control.

Explore cutting-edge quantum interference techniques for spectroscopy, focusing on the innovative application of Hong-Ou-Mandel interference in simultaneous amplitude and phase measurements.

Explore radiofrequency reflectometry for measuring superfluid stiffness in 2D superconductors. Gain insights into Moiré materials and their tunable quantum properties in this advanced physics talk.

Explore twist-programmable superconductivity in spin-orbit coupled bilayer graphene. Discover how Moiré materials offer tunable band structures, symmetry, and topology for investigating quantum phenomena.

Explore superconductivity in twisted bilayer graphene through the heavy fermion model. Andrei Bernevig discusses mechanisms, order parameters, and implications for understanding novel quantum materials.

Explore thermodynamic measurements of correlated states in magic angle twisted bilayer graphene, examining novel phenomena in moiré materials and their implications for quantum matter research.

Explore efficient methods for predicting superlattice band topology using quantum geometry, presented by Jen Cano from Stony Brook University at the Moiré materials conference.

Explore cutting-edge research on rhombohedral multilayer graphene presented by MIT's Long Ju, discussing recent advancements and potential applications in quantum materials and condensed matter physics.