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Dynamic Correlators for Kitaev Materials - A Mean-Field Approach - Tessa Cookmeyer

Offered By: Kavli Institute for Theoretical Physics via YouTube

Tags

Quantum Magnetism Courses Mean-Field Theory Courses Spin-Phonon Interactions Courses Quantum Gauge Theories Courses Fractionalization Courses

Course Description

Overview

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Explore a 37-minute conference talk on dynamic correlators for Kitaev materials using a mean-field approach, presented by Tessa Cookmeyer from the Kavli Institute for Theoretical Physics. Delve into recent advancements in quantum magnetism, focusing on the emergence of low-energy quantum gauge theories and their impact on collective phenomena in quantum magnets. Examine the search for novel topologically-ordered states of matter in real materials, and investigate dynamical and transport properties that reveal fractionalization and multipolar ordering. Consider the roles of disorder and spin-phonon interaction, as well as emergent-electrodynamics induced by topological spin textures. Gain insights into the unusual dynamics of integrable systems and the revolutionary impact of Moiré systems on 2D quantum magnetism. Recorded as part of the Dynamical Response and Transport in Quantum Magnets conference at KITP, this talk contributes to addressing modern challenges in quantum magnetism research.

Syllabus

Dynamic correlators for Kitaev materials: a mean-field approach ▸ Tessa Cookmeyer (KITP)


Taught by

Kavli Institute for Theoretical Physics

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