New Results on Crystalline Graphene Multilayers - Intervalley Coherence and Emergent Spin Orbit Coupling
Offered By: Kavli Institute for Theoretical Physics via YouTube
Course Description
Overview
Explore cutting-edge research on crystalline graphene multilayers in this 44-minute conference talk by Andrea Young from UCSB. Delve into the topics of intervalley coherence and emergent spin-orbit coupling as part of a broader discussion on the interplay between topology, symmetry, and interactions in condensed matter physics. Gain insights into recent theoretical and experimental advancements in the field, including the effects of correlations on topological insulators, semimetals, and superconductors. Learn about the role of symmetry and strong correlations in producing topological phases in Kondo systems, and discover the potential of Moire heterostructures in revealing general principles for topology and interactions. Examine the connections between higher-order topology and fracton systems, and explore how topology might provide a framework for understanding strongly correlated gapless phases. This talk, presented at the Kavli Institute for Theoretical Physics, offers a valuable opportunity to stay up-to-date with the latest developments in this rapidly growing area of research.
Syllabus
New results on crystalline graphene multilayers: intervalley coherence... ▸ Andrea Young (UCSB)
Taught by
Kavli Institute for Theoretical Physics
Related Courses
From Abelian Anyons in Moiré Matter to Non-Abelions in Synthetic Quantum Systems - Ashvin VishwanathKavli Institute for Theoretical Physics via YouTube Quantum Materials Under Nonlinear Spotlight - Probing Symmetry and Quantum Geometry
Kavli Institute for Theoretical Physics via YouTube Correlated Phases in Geometrically Frustrated Lattices - Ming Yi
Kavli Institute for Theoretical Physics via YouTube Mobile Majorana Zero Modes in Two-Channel Kondo Lattices - Rebecca Flint
Kavli Institute for Theoretical Physics via YouTube Topological Phases With Average Symmetries - Chong Wang
Kavli Institute for Theoretical Physics via YouTube