Live Online Classes in Design, Coding & AI — Small Classes, Free Retakes
2,000+ Free Courses with Certificates: Coding, AI, SQL, and More
Overview
AI, Data Science & Cloud Certificates from Google, IBM & Meta — 40% Off
One plan covers every Professional Certificate on Coursera. 40% off Coursera Plus Annual.
Unlock All Certificates
Explore advanced concepts in quantum many-body physics through this comprehensive lecture series covering non-perturbative approaches to strongly correlated electron systems. Delve into non-perturbative Luttinger relations and their applications to understanding Fermi surface properties beyond conventional quasiparticle descriptions. Examine fractionalized metallic phases in single-band systems, where electrons exhibit exotic behaviors that challenge traditional solid-state physics paradigms. Study the Sachdev-Ye-Kitaev (SYK) model in detail across multiple sessions, learning how this exactly solvable model provides insights into quantum chaos, black hole physics, and non-Fermi liquid behavior. Investigate the fascinating phenomenon of Fermi surfaces without quasiparticles, exploring how strongly interacting quantum systems can maintain sharp Fermi surfaces while lacking well-defined quasiparticle excitations. Gain deep theoretical understanding of quantum phase transitions, strange metals, and the breakdown of Fermi liquid theory in strongly correlated materials, with particular emphasis on high-temperature superconductors and other quantum materials where conventional theoretical frameworks fail.
Syllabus
Quantum Phases of Matter XXI - Non-perturbative Luttinger relations - Subir Sachdev
Quantum Phases of Matter XXII - Fractionalized metallic phases in the single band - Subir Sachdev
Quantum Phases of Matter XXIII - The SYK model - Subir Sachdev
Quantum Phases of Matter XXIV - The SYK model II - Subir Sachdev
Quantum Phases of Matter XXV - Fermi surfaces without quasiparticles - Subir Sachdev
Quantum Phases of Matter XXVI - Fermi surfaces without quasiparticles II - Subir Sachdev
Taught by
International Centre for Theoretical Sciences