Engineered 2D Materials - The Heterostructure Effect
Explore emergent phenomena in 2D quantum materials, focusing on heterostructures and their unique electronic, magnetic, and topological properties. Learn about cutting-edge research and applications.
Engineered 2D Quantum Materials Tutorial Session - Part II
Explore emergent phenomena in 2D quantum materials, focusing on electronic, magnetic, and topological aspects in synthetic structures and heterostructures. Gain insights from experts in physics and materials science.
Nonlinear Electrical Transport Unveils Fermi Surface Malleability in a Moiré System
Explore nonlinear electrical transport in Moiré systems, revealing Fermi surface malleability and its implications for quantum materials and emergent phenomena in 2D structures.
Controlling the Particle-hole Symmetry in Fractional Quantum Hall States
Explore particle-hole symmetry control in fractional quantum Hall states. Gain insights into emergent phenomena in 2D quantum materials and their potential applications.
Fractional Wannier Orbitals and Tight-Binding Gauge Fields in Kitaev Model
Explore fractional Wannier orbitals and tight-binding gauge fields in the Kitaev model, examining their implications for quantum materials and topological phenomena.
Topological Symmetry and Duality in Quantum Lattice Models - Lecture 2
Explore topological symmetry and duality in quantum lattice models, focusing on finite symmetries and one-dimensional systems. Gain insights into Hamiltonian analysis, symmetry operators, and phase classifications.
Generalized Symmetries and Phases of Gauge Theory - Lecture 2
Explore higher-form and higher-group symmetries in gauge theory phases, focusing on 3+1 dimensions. Gain insights into anomalies and SPTs through expert analysis.
Introduction to Anomalies in Condensed Matter Physics - Lecture 2
Explore topological and invertible phases in condensed matter physics, covering Majorana chains, bordism invariance, and symmetry-protected topological states.
Introduction to Anomalies in Condensed Matter Physics - Lecture 1
Explore topological phases, invertible phases, and symmetry-protected topological states in condensed matter physics through examples and theoretical frameworks.
Generalized Symmetries and Phases of Gauge Theory - Lecture 1
Explore higher-form and higher-group symmetries in gauge theory phases, focusing on 3+1 dimensions and related concepts like anomalies and SPTs.
Topological Phases of Quantum Lattice Systems and Higher Berry Classes - Lecture 3
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.
Topological Phases of Quantum Lattice Systems and Higher Berry Classes - Lecture 2
Explore advanced concepts in topological phases of quantum lattice systems, including higher Berry classes, SRE phases, and their classification using TQFT and homotopy groups.
Waves, Disorder and Interactions: A Physicist's Perspective
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.
Topological Phases of Quantum Lattice Systems and Higher Berry Classes - Lecture 1
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.
Radiofrequency Reflectometry Measurement of Superfluid Stiffness of 2D Superconductors
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.
Twist-Programmable Superconductivity in Spin-Orbit Coupled Bilayer Graphene
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.
Superconducting Mechanism and Order Parameter in Twisted Bilayer Graphene - From the Heavy Fermion Model
Explore superconductivity in twisted bilayer graphene through the heavy fermion model. Andrei Bernevig discusses mechanisms, order parameters, and implications for understanding novel quantum materials.
Thermodynamic Measurements of Correlated States in Magic Angle Twisted Bilayer Graphene
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.
Topological Wigner Crystal and FQSH in Moire Systems
Explore topological Wigner crystals and FQSH in moiré systems with Yahui Zhang. Discover novel quantum phenomena in tunable materials and their implications for condensed matter physics.
Efficient Prediction of Superlattice Band Topology from Quantum Geometry
Explore efficient methods for predicting superlattice band topology using quantum geometry, presented by Jen Cano from Stony Brook University at the Moiré materials conference.
New Developments on Rhombohedral Multilayer Graphene
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.