
Explore groundbreaking research on two-dimensional materials and their impact on condensed matter physics with expert Erez Berg, uncovering new perspectives and potential applications in this cutting-edge field.

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.

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.

Explore the interplay of electronic crystals with Chern insulators in graphene moiré lattices, examining band structure, topology, and correlated states in tunable quantum matter.

Explore similarities and differences between flat Chern bands and Landau levels in quantum systems, focusing on their implications for moiré materials and tunable quantum matter.

Explore periodic and quasiperiodic moiré crystals with Eva Andrei. Discover the latest research on tunable quantum matter, band structures, and emerging phenomena in this cutting-edge field of condensed matter physics.

Explore magnetism and superconductivity in twisted WSe2 with Abhay Pasupathy. Discover cutting-edge research on moiré materials and their tunable quantum properties in this conference talk.

Explore how crystallization processes can lead to the formation of Chern insulators, a unique class of topological materials, in this advanced physics talk by Dan Parker from UCSD.

Explore correlated Chern insulators in twisted bilayer graphene and MoTe2 under magnetic fields. Gain insights into moiré materials' tunable quantum properties and their implications for condensed matter physics.

Explore twisted layers of electrons, their design, surprises, and new perspectives in quantum matter. Gain insights into moiré materials and their potential for tunable band structures and novel phenomena.

Explore angle-resolved transport in multilayer graphene with J.I.A. Li. Discover insights into moiré materials, their tunable properties, and implications for quantum matter research.

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.

Explore interactions and superconductivity in graphene stacks, focusing on twisted and untwisted configurations. Gain insights into cutting-edge research in moiré materials and their potential applications.

Explore quantum phases in flat-band van-der-Waals systems through quantum transport. Learn about making, controlling, and measuring these systems in this insightful talk by Thomas Weitz.

Explore superconductivity in moiré TMD layers with Sankar Das Sarma. Discover cutting-edge research on tunable quantum matter, band structures, and correlated states in this advanced physics talk.

Explore orbital geometric frustration's role in fractionalization with Eun Ah Kim. Gain insights into quantum matter, moiré materials, and their implications for superconductivity and correlated states.

Explore textured exciton insulators in moiré materials, discussing their unique properties, potential applications, and role in advancing quantum matter research.

Explore color-dual cut tiling and its application to N=8 supergravity, delving into advanced concepts in theoretical physics and mathematical techniques for understanding fundamental particle interactions.

Explore modular bootstrap techniques for analyzing BPS black holes, uncovering insights into their quantum properties and thermodynamics.

Explore Feynman's approach to constructing commuting higher Hamiltonians in Calogero models, offering a modern perspective on this advanced topic in mathematical physics.