Methods for Modeling Transport and Dynamics of Quantum Magnets

The study of the dynamics of interacting quantum spin systems is an important and largely open problem in quantum many-body theory. Magnetic systems offer an ideal playground to study in and out of equilibrium quantum dynamics. Recent progress in the field has been driven by embracing the complexity of magnetic materials with entangled spin, orbital and lattice degrees of freedom. These materials demand efficient methodologies (e.g. semi-classical methods) to model their transport and dynamical properties that can reveal the nature of the excitations and their instabilities in the proximity to broken symmetry states. Moreover, dynamical correlation functions are accessible to various spectroscopic and resonance experiments, providing crucial insight and validation tests for theoretical models.

Our primary goal is to open a space for international scientists to exchange the latest breakthroughs in quantum magnetism. We aim to bridge the gap between theoretical advancements in quantum dynamics and transport and their practical applications in experimental and numerical studies.

Registration

Registration Fee: $200

Organizing Committee

Cristian Batista (LANL)

Kipton Barros     (LANL)

Martin Mourigal  (GA Tech)