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Explore cutting-edge research at the intersection of quantum information theory and spacetime physics through this comprehensive workshop featuring leading experts in theoretical physics. Delve into advanced topics including quantum complexity theory, tensor networks, holographic codes, and black hole physics across nearly 14 hours of specialized lectures. Examine quantum circuit complexity through Jordan Cotler's analysis of experimental frameworks, then investigate p-adic tensor networks and emergent Einstein equations with Ling-Yan Hung. Study rigorous proofs of Brown-Susskind complexity conjectures presented by Nicole Yunger Halpern and explore entropy estimation methods for shallow quantum circuits. Learn about approximate holographic codes through tensor network approaches and discover connections between spin glass theory and holographic duality. Investigate topological pseudo entropy concepts, branching time phenomena in SYK-like models, and quantum circuit behavior within black hole interiors. Analyze late-time von Neumann entropy, measurement-induced phase transitions, and wormhole factorization problems in quantum gravity. Examine the volumetric properties of black hole interiors, explore failures of the split property in gravitational systems, and study Page-like transitions in quantum cosmology. Discover island-finding techniques, singularity theorems, and string scattering off quantum extremal surfaces, while investigating one-shot holography principles and charge fluctuation entropy in Hawking radiation through replica-free methodologies.
