Projector Monte Carlo and Exact Diagonalization with Rimu.jl
Explore quantum many-body physics with Rimu.jl: implement projector Monte Carlo, perform exact diagonalization, and extend models using Julia's speed and flexibility.
Many-Body Perturbation Theory and Green's Function Methods - IPAM at UCLA
Explore Green's functions and many-body perturbation theory in quantum physics, covering Feynman diagrams, self-energy, and applications like GW method and DMFT. Gain insights into mathematical structures and open problems.
Quantum Many-Body Physics with Multimode Cavity QED by Jonathan Keeling
Explore quantum many-body physics in multimode cavity QED, covering topics like the Dicke model, superradiance, dipole approximation, and phase transitions in open quantum systems.
Boundaries and Defects in the 3D O(N) Model
Explores boundaries and defects in 3D O(N) models, discussing quantum critical points, symmetries, and gapless states. Part of a conference on strongly correlated gapless quantum many-body systems.
Kekulé Spirals and Other Twists in Moiré Graphene Multilayers
Explore Kekulé spirals and twists in moiré graphene multilayers, examining band structure, symmetry, and topology in these tunable quantum materials. Gain insights into emerging phenomena and experimental challenges.
Correlated Phases in SU(N) Symmetric Systems - Twisted AB-Stacked Transition Metal Dichalcogenides
Explores correlated phases in SU(N) symmetric systems, focusing on twisted AB-stacked transition metal dichalcogenides. Discusses band structure, symmetry, and topology in moiré materials and their implications for quantum phenomena.
Introduction to Moiré Materials - Part 3
Explore advanced concepts in moiré materials, focusing on theoretical aspects and potential applications in ultra-quantum matter research.
Introduction to Moiré Materials - Part 2
Explore advanced concepts in moiré materials, focusing on theoretical aspects and potential applications in ultra-quantum matter research.
Introduction to Moiré Materials - Part 1
Comprehensive exploration of moiré materials, covering fundamental concepts, properties, and potential applications in advanced physics and materials science.
Mapping of Interacting Flat Bands with Concentrated Berry Curvature to a Topological Heavy Fermion Problem
Explore the mapping of interacting flat bands with concentrated Berry curvature to topological heavy fermion problems in condensed matter physics with Princeton's Andrei Bernevig.
Computational Quantum Many-Body Physics: A Few Highlights
Explore computational approaches in quantum many-body physics, focusing on key highlights and advancements in the field.
CECAM-MARVEL Classics: Molecular and Materials Modelling with Antoine Georges and Gabriel Kotliar
Explore pioneering methods in computational physics and chemistry with Antoine Georges and Gabriel Kotliar. Learn about quantum excitations, locality, and efficient impurity solvers in this in-depth presentation.
Fundamental Limitation on the Detectability of Entanglement in Quantum Systems
Delve into quantum entanglement detection limitations, exploring theoretical trade-offs between efficiency and effectiveness in quantum systems, with focus on single-copy and multi-copy measurements.
Perturbative Quantum Simulation: Theory and Applications
Explore perturbative quantum simulation techniques that combine classical perturbation theory with quantum computing to solve large quantum problems using limited quantum hardware resources.
Improved Product-state Approximation Algorithms for Quantum Local Hamiltonians
Delve into advanced algorithms for approximating ground state energy and free energy in quantum local Hamiltonians, exploring new techniques for dense systems and sparse graphs with fixed minor exclusions.
Observation and Characterization of Superradiant Bursts in a Cascaded Quantum System
Delve into quantum interactions between atoms and light, exploring superradiant bursts in cascaded quantum systems through cutting-edge experimental platforms and advanced theoretical frameworks.
Super and Sub Radiance beyond the Dicke Limit - Observing Collective Emission in an Ordered Atomic Array
Explore quantum interactions between atoms and light through ordered arrays and disordered ensembles, examining collective emission phenomena and new experimental platforms for controlling atom-light interfaces.
Matter Wave Interferometry and Hamiltonian Engineering in Cavity QED
Delve into quantum interactions between atoms and light, exploring matter wave interferometry and Hamiltonian engineering through advanced cavity quantum electrodynamics experimental platforms.
Entanglement Generation via Dissipation Using Strong Symmetries
Delve into quantum entanglement generation through dissipation mechanisms, exploring strong symmetries in atomic systems and their applications in quantum optical platforms and interfaces.
Quantum-Optical Spin Glasses and Associative Memories
Explore quantum interactions between atoms and light, focusing on spin glasses and associative memories in quantum optical systems through advanced experimental platforms and theoretical frameworks.
Rydberg Photonics in Quantum Optical Systems
Explore quantum interactions between atoms and light through Rydberg photonics, focusing on dense atomic media, nanophotonic interfaces, and quantum electrodynamical circuits for advanced control and manipulation.