
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 groundbreaking research on non-Fermi liquid physics in 2D materials, focusing on Luttinger liquid behavior in twisted WTe2 and its implications for understanding strongly correlated quantum phenomena.

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

Explore emergent phenomena in 2D synthetic quantum materials, focusing on electronic, magnetic, and topological aspects in artificially engineered heterostructures and twisted materials.

Explore nonlinear electrical transport in Moiré systems, revealing Fermi surface malleability and its implications for quantum materials and emergent phenomena in 2D structures.

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 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.

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.

Explore the Anomalous Hall Crystal and its potential realization in rhombohedral graphene platforms. Gain insights into moiré materials and their tunable quantum properties in this advanced physics lecture.

Explore bulk and edge states in fractional Chern insulators through local probing techniques. Gain insights into quantum matter and topological physics in Moiré materials.

Explore composite fermion tunneling at moiré TMD/superconductor interfaces in this advanced physics talk by Alex Thomson, delving into cutting-edge research on tunable quantum matter.

Explore generalized Landau levels, quantized trace formulas, and their implications for non-Abelian Moiré fractionalization in this advanced physics lecture by Jie Wang from Temple University.

Explore recent advancements in fractional quantum anomalous Hall effects with Xiaodong Xu. Gain insights into this cutting-edge research area within the context of Moiré materials and tunable quantum matter.

Explore phonon behavior in Moiré materials, examining their unique properties and implications for quantum physics in engineered 2D structures.

Explore cuprate twistronics and its potential for developing macroscopic quantum hardware. Learn about emergent phenomena in 2D quantum materials and their applications in advanced technologies.

Explore quantum oscillations in moiré systems through advanced imaging techniques. Gain insights into correlated states, superconductivity, and novel experimental approaches in tunable quantum matter.

Explore dynamical correlations and order in twisted bilayer graphene with Roser Valenti. Gain insights into this cutting-edge topic in condensed matter physics and its implications for quantum materials research.