
Explore topological charges in quantum materials, focusing on graphene and semimetals, with insights on quantum metrics and polarized light applications.

Explore topology, correlations, and superconductivity in magic angle graphene. Dive into band structures, symmetries, and experimental findings. Gain insights on flat bands, Landau levels, and correlated electron paradigms.

Explore topological invariants and markers in quantum materials, unifying concepts through wrapping numbers and quantum metrics. Apply to 1D and 2D systems.

Explore analytic microlocal methods in condensed matter physics, focusing on magic angles in graphene and eigenfunction decay. Discover insights from numerical simulations and potential research directions.

Explore the band structure transformations in impure graphene, focusing on avoided crossing phenomena and their implications for theoretical physics.

Explores non-equilibrium Green's function method for energy, momentum, and angular momentum transfer via photons, covering applications in graphene, nanotubes, and molecular systems.

Explore topologically ordered matter in 2D systems, its implications for quantum computing, and potential applications across various physical systems. Gain insights into this exotic yet observable phenomenon.

Explore superconductivity, correlations, and Chern insulators in twisted bilayer graphene, focusing on recent developments and experimental findings in Moiré materials physics.

Exploring Pomeranchuk effect and entropy in twisted bilayer graphene's ferromagnets, discussing superconductivity, magnetism, and symmetry breaking in Moiré materials.

Exploración de interacciones RKKY en superficies de Dirac, enfocándose en grafeno y aislantes topológicos. Análisis de correlaciones antiferromagnéticas, ferromagnetismo inducido y efectos de tensión en propiedades magnéticas.

Explore tight binding models, graphene edges, and edge states in quantum mechanics. Discover classifications, proofs, and formulas for zero energy states and dispersive edge curves.

Explore competing orders in twisted bilayer graphene with Laura Classen. Gain insights into non-Fermi liquid behavior and quantum matter beyond traditional quasiparticle frameworks.

Explore the evolution and significance of nanocarbons through a historical lens, guided by renowned expert Mildred Dresselhaus in this insightful 32-minute talk.

Explore the impact of graphene and other 2D materials in materials science. Learn about synthesis, characterization, and engineering of atomic layers for applications in electronics and catalysis.

Explore diverse carbon nanomaterials beyond graphene, their unique properties, and potential applications. Learn about cutting-edge research in carbon-based nanostructures and their impact on various fields.

Explore the fascinating world of 2D materials, from graphene to pillared structures. Learn about their production, electronic properties, and applications in gas storage, catalysis, and biomedicine.

Explore long-lived isospin modes in gapless moiré graphene with Chenhao Jin. Discover cutting-edge research on quantum many-body systems and their implications for condensed matter physics.

Explore quantum anomalous Hall effects in graphene with MIT expert Long Ju. Gain insights into cutting-edge research on strongly correlated gapless quantum many-body systems and their implications.

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.