
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.

Comprehensive exploration of gamma-ray bursts, covering discovery, observational facts, physics, and astrophysical implications. Delves into prompt emission, afterglows, and theoretical models, providing insights for researchers and students.

Explore mathematical formulation of numerical relativity, focusing on simulating binary black hole coalescence, gravitational waves, and advanced computational techniques in astrophysics.

Explore non-equilibrium dynamics of inhomogeneous fluids, focusing on colloidal particles in binary solvents. Learn about phase transitions, critical points, and phenomena like coalescence, nucleation, and aging.

Explore critical dynamics and Casimir forces in binary fluids through molecular dynamics simulations, focusing on surface properties, scaling behavior, and correlation functions in confined fluid systems.

Explore exotic patterns in Faraday waves through advanced numerical simulations and theoretical analysis. Discover fascinating phenomena like quasipatterns, superlattices, and dynamic pattern evolution in vibrated fluid layers.

Explore the fascinating journey to understanding turbulence in shear flows, from historical observations to modern insights on phase transitions, intermittency, and universal scaling laws.

Explore genetic drift, inbreeding, and effective population size through probability theory, distributions, and evolutionary concepts. Gain insights into population genetics and its applications in evolutionary biology.

Explore topological phases in quantum matter, from quantum Hall effect to topological insulators and superconductors. Learn about edge states, bulk-boundary correspondence, and current frontiers in this fascinating field of physics.

Explore geometric phases in physics, from historical discoveries to modern applications. Delve into mathematical foundations, experimental demonstrations, and implications for optics and quantum mechanics.

Explore modular theory in quantum field theory, covering observables, operators, and superselection sectors. Gain insights into correlation functions and state sewing in QFT.

Explore magnetic reconnection and plasmoid instability in the semi-collisional regime, with theoretical and numerical investigations validating its existence at lower, experimentally accessible Lundquist numbers.

Explore the physics of neutron stars, including their maximum mass, equation of state, and exotic internal states. Delve into key concepts like Fermi gas, Bose-Einstein condensation, and gravitational implosion.

Explore the formation and evolution of neutron stars, supernovae, and their remnants. Delve into stellar physics, cosmic rays, and the violent interstellar medium in this comprehensive lecture.

Explore pulsars, neutron stars, and their remarkable properties. Delve into the Crab Nebula's history, pulsar discovery, and radiation mechanisms. Gain insights into magnetospheres and electrodynamics of these fascinating cosmic objects.

Explore the physics of stars, from their structure and energy production to their lifetimes, in this comprehensive lecture on stellar astrophysics by G Srinivasan.

Explore radiation from relativistic particles, covering Maxwell's equations, synchrotron radiation, and applications to astrophysical phenomena like pulsars and supernova remnants.