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Explore advanced concepts in quantum many-body physics through this comprehensive lecture focusing on Hilbert space fragmentation and many-body scars. Delve into the theoretical foundations and practical implications of these phenomena that challenge conventional understanding of thermalization in quantum systems. Learn how certain quantum many-body systems can exhibit non-ergodic behavior through fragmentation of their Hilbert space, where the system becomes trapped in disconnected subspaces that prevent full thermalization. Examine the emergence of many-body scars - special eigenstates that violate the eigenstate thermalization hypothesis and lead to persistent oscillations and revivals in quantum dynamics. Understand the mathematical framework underlying these concepts, including the role of symmetries, constraints, and special initial conditions in creating fragmented dynamics. Discover how these theoretical insights connect to experimental observations in ultracold atomic systems, Rydberg atom arrays, and other quantum platforms where non-thermal behavior has been observed. Gain insights into the broader implications for quantum thermodynamics, quantum information processing, and the fundamental limits of thermalization in isolated quantum systems.
Syllabus
Thomas Iadecola: Hilbert space fragmentation and many-body scars - 2
Taught by
ICTP-SAIFR