Attend a comprehensive summer school designed for graduate students and junior researchers focusing on collective behavior in quantum matter through modern condensed matter and statistical physics. Explore fundamental concepts alongside cutting-edge structural and interdisciplinary developments through a balanced combination of theoretical foundations, computational methods, and experimental progress seminars. Master statistical mechanics from foundational principles to quantum information applications, while developing proficiency in high-level programming and advanced numerical methods including Monte Carlo techniques and Python-based scientific computing. Delve into coherent dynamics covering entanglement, decoherence, phase transitions, and driven systems, with particular emphasis on dynamical quantum phase transitions and their applications. Investigate topological quantum matter through detailed study of phases and diagnostic methods, including topological lattice models from gauging and topological phenomena in magnetism. Examine diverse physical implementations spanning cold atoms and optical lattices, trapped ions, nanophysics, and advanced materials like graphene. Study phase transitions in hard core models, open quantum systems using matrix product operators, and entanglement entropy in quantum field theories. Explore experimental investigations of frustrated magnets, hydrodynamic transport in electron systems, and Berezinskii-Kosterlitz-Thouless physics in Bose Einstein condensates. Learn about quantum simulators, new topological materials and their properties, and tensor networks with applications to machine learning and quantum computing. Analyze ergodic and non-ergodic quantum dynamics, quantum spin chains and the Kardar-Parisi-Zhang equation, and emergent quasiparticle excitations in quantum spin liquids to gain comprehensive understanding of collective quantum phenomena.

Syllabus

Introduction to dynamical quantum phase transitions I - Part1
Introduction to dynamical quantum phase transitions I Part2
Graphene I Part 1
Graphene I - Part 2
Introduction to Monte Carlo II
Introduction to Monte Carlo III
Introduction to dynamical quantum phase transitions II
Introduction to dynamical quantum phase transitions III
Graphene II
Phase transitions in hard core models I
Phase transitions in hard core models II
Phase transitions in hard core models III
Phase transitions in hard core models IV
Phase transitions in hard core models V
Python-based scientific computing I
Python-based scientific computing II
Open quantum systems and matrix product operators
Python-based scientific computing III
Entanglement entropy in quantum field theories I
Entanglement entropy in quantum field theories II
Entanglement entropy in quantum field theories III
Entanglement entropy in quantum field theories IV
Experimental investigation of frustrated magnets I
Experimental investigation of frustrated magnets II
Hydrodynamic transport in electron systems
Topological lattice models from gauging I
Topological lattice models from gauging II
Topological lattice models from gauging III
Introduction to cold atom experiments and optical lattices I
Introduction to cold atom experiments and optical lattices II
Berezinskii-Kosterlitz-Thouless physics and Bose Einstein Condensates I
Berezinskii-Kosterlitz-Thouless physics and Bose Einstein Condensates II
Berezinskii-Kosterlitz-Thouless physics and Bose Einstein Condensates III
Introduction to quantum simulators
New topological materials and their properties
New Directions for Tensor Networks: Machine Learning and Quantum Computing I
New Directions for Tensor Networks: Machine Learning and Quantum Computing II
New Directions for Tensor Networks: Machine Learning and Quantum Computing III
Ergodic and non-ergodic quantum dynamics I
Ergodic and non-ergodic quantum dynamics IV
Topological phenomena in magnetism I
Topological phenomena in magnetism II
Topological phenomena in magnetism III
Topological phenomena in magnetism IV
Tensor networks I
Tensor networks II
Tensor networks III
Quantum spin chains and the Kardar-Parisi-Zhang equation
Emergent quasiparticle excitations in quantum spin liquids I
Emergent quasiparticle excitations in quantum spin liquids II