
Explores disorder-induced half-integer thermal Hall conductance in fractional quantum Hall systems, focusing on experimental techniques, theoretical models, and implications for topological states of matter.

Explores classical elasticity, free energy, and stress in metamaterials. Covers isotropic materials, Lame coefficients, and uniaxial crystals. Discusses forces and stresses in topological mechanical systems.

Explore the universe's expansion, cosmic microwave background, and inflationary theories. Delve into cosmological phase transitions, gauge theories, and the concept of multiverses in this comprehensive lecture.

Explore metamaterials and topological mechanics, focusing on engineered structures with unique properties like negative refraction and protected edge states. Learn about applications in optics and elasticity.

Explore the properties and behavior of Quark-Gluon Plasma in high-energy collisions. Learn about hydrodynamic models, lattice QCD, and recent developments in understanding this extreme state of matter.

Comprehensive introduction to perturbative QCD for colliders, covering quantum chromodynamics, color theory, gluon fields, asymptotic freedom, and renormalization group equations with practical examples.

Explore recycled pulsars, neutron star spin-up, and magnetic field evolution in binary systems. Gain insights into the Hulse-Taylor pulsar, accretion processes, and the physics of neutron star interiors.

Explore Yangian symmetry in AdS/CFT correspondence, focusing on N=4 supersymmetric Yang-Mills theory and its applications to scattering amplitudes, correlation functions, and Wilson loops.

Comprehensive lecture on QCD axions, covering theoretical foundations, strong CP problem, spontaneous symmetry breaking, and axion models. Explores potential solutions to dark matter mysteries.

Explore primordial black holes as dark matter candidates through gravitational wave detection, microlensing, and fast radio bursts. Discover constraints, observational prospects, and implications for cosmology.

Explore the physics of living systems, focusing on soft condensed matter and emergent self-organization in cells and tissues. Gain insights into the fascinating intersection of physics and biology.

Explore the inflationary paradigm, its observational predictions, and implications for fundamental physics. Delve into non-Gaussianity, gravitational waves, and future observational strategies in cosmology.

Explore essential cosmological perturbation theory, from metric perturbations to gravitational waves, and its role in understanding cosmic structure and the early universe.

Explore turbulence through statistical mechanics, covering energy cascades, Kolmogorov's hypotheses, and connections to phase transitions. Learn about predator-prey dynamics in pipe flow and directed percolation in laminar-turbulent transitions.

Explore topology's role in statistical physics, from Maxwell's equations to magnetic monopoles. Learn about topological quantum numbers and path integral formulation in this advanced lecture.

Explore statistical physics of rare events and large deviations, covering mathematical foundations, equilibrium concepts, coin toss problems, blackbody radiation, and applications in physics and beyond.

Explore nonequilibrium response theory, covering fluctuations, linear response, and the fluctuation-dissipation theorem. Gain insights into equilibrium and dynamic responses in statistical physics.

Explore self-organization principles in active matter systems, from bacterial colonies to colloids. Learn about motility regulation, quorum sensing, and pattern formation in non-equilibrium physics.

Explore mesoscopic aspects of classical transport, covering equilibrium models, time reversal, entropy, and non-equilibrium states. Gain insights into fluctuations in nonequilibrium systems and their applications.

Explore advanced concepts in optics, from electromagnetic waves to quantum physics, through lectures, demonstrations, and simulations. Gain insights into optical phenomena in nature and technology.

Explore light as electromagnetic waves, optical phenomena, and underlying concepts through math, experiments, and simulations. Covers geometrical optics, least action principle, and introduces quantum physics.