
Explore quantum physics in astrophysics, from white dwarfs to neutron stars. Learn about Chandrasekhar's theory, supernova explosions, and the fate of massive stars in this comprehensive lecture.

Explore advanced general relativity concepts, including black holes, spacetime geometry, and Raychaudhuri equations, in this comprehensive lecture series honoring physicist Amal Kumar Raychaudhuri.

Explore black holes, quantum mechanics, and time reversibility with physicist Suvrat Raju. Delve into paradoxes, recent progress, and the fascinating intersection of these complex topics in theoretical physics.

Explore climate tipping points, their global impact, and early warning systems. Gain insights into critical transitions in complex systems like monsoons, ocean circulation, and rainforests.

Explore the Black-Hole information paradox, Hawking radiation, and quantum gravity with physicist Suvrat Raju. Gain insights into cutting-edge theories and recent breakthroughs in theoretical physics.

Explore our place in the Milky Way galaxy, from star mapping techniques to the latest GAIA mission findings. Discover the structure, dynamics, and mysteries of our cosmic home.

Explore bootstrap applications in QCD, focusing on positivity, loop equations, and lattice gauge theory. Gain insights into large-N limit, positivity constraints, and gradient flow in this advanced theoretical physics lecture.

Explore novel phases of matter at ultra-low temperatures, including Bose-Einstein condensates and supersolids. Learn about quantum technologies, atomic clocks, and applications in space exploration and navigation systems.

Explore the emergence of biological physics as a distinct field, its historical context, current state, and future challenges, with insights from the US National Academy of Sciences survey.

Explore turbulent flows in nature and industry, examining mathematical, engineering, and physical perspectives. Learn about analytical, experimental, and numerical tools, and delve into the phenomenology of turbulence.

Explore hydrodynamic theories in biology, focusing on pattern formation in active fluids and the actomyosin cortex. Learn about conservation laws, chemical reactions, and force balance in biological systems.

Explore linear stability analysis, pattern formation, and dynamical systems in biology. Covers fixed points, Ginzburg-Landau equation, perturbations, and Swift-Hohenberg model. Includes examples and Q&A session.

Explore stochastic chemical reaction networks, their examples, definitions, and the deficiency zero theorem in this comprehensive lecture on statistical physics of complex systems.

Comprehensive introduction to spin glasses, covering experimental results, frustration, models, and analysis methods. Explores complex magnetic systems and their unique properties.

Explore biological pattern formation through nonequilibrium physics, from snake pigmentation to tissue development. Discover emergence, hydrodynamics, and reaction-diffusion models in this comprehensive lecture on complex biological systems.

Explore genomic techniques for species conservation, including demographic modeling, heritability analysis, and genetic rescue strategies, to address biodiversity loss and extinction risks in the Anthropocene.

Explore population genetics theory, covering genetic drift, mutation rates, and recombination. Gain insights into evolutionary processes and their impact on population dynamics across different organisms.

Explores generalized hydrodynamics of the hyperbolic Calogero-Moser model, covering 1D classical fluids, conservation laws, scattering shifts, and hydrodynamic equations. Includes discussion on Toda fluids and rational models.

Explore stochastic modeling in evolution, covering heritability, Mendel's experiments, neutral evolution, random genetic drift, and fixation probability through lectures and experiments.

Comprehensive tutorial on advanced topics in theoretical physics, including the Unruh effect, black hole information paradox, and quantum field theory in curved spacetime. Covers key concepts and calculations for graduate-level researchers.

Explore quantum aspects of black holes, including traversable wormholes, quantum teleportation, and the Hayden-Preskill problem. Delve into chaotic systems, random matrices, and gravity solutions for the ramp.