
Explores the Energy Minimisation Principle in cosmology, linking protohalo shapes to anisotropic infall and discussing its implications for galaxy formation, cosmic web evolution, and large-scale structure.

Explore celestial holography, soft symmetries, and particle-like backgrounds in quantum field theory. Gain insights into celestial shockwave correlators and the celestial distance conjecture.

Explores top-down topological holography and twistor space twists, discussing chiral algebras, operator product expansions, and closed string theory. Examines connections, examples, and special features in modern field theory.

Explore 3D gravity and Teichmueller TQFT, covering classical theory, mapping class groups, face spaces, and their connections to quantum gravity and holography in this advanced physics lecture.

Explore new insights into nova eruptions, focusing on the role of shocks in gamma-ray production, dust formation, and light curve behavior. Learn about recent observations and their implications for our understanding of these stellar events.

Explore the connection between gas-embedded binaries, stellar evolution, and gravitational waves. Gain insights into supermassive black holes and merging binaries in this comprehensive lecture.

Explore gravitational wave modeling and its impact on physics, connecting field theory, relativity, and scattering amplitudes. Learn about emerging tools and techniques for next-gen experiments.

Explores circumbinary disks across stellar and black hole binary systems, discussing gas evolution, observational signatures, and numerical modeling techniques to understand these complex astrophysical phenomena.

Explore orbital evolution in binary systems, from stars to black holes. Learn about circumbinary gas, observational signatures, and numerical modeling techniques across astrophysical scales.

Explore circumbinary gas evolution, its influence on binary systems, and observational signatures across stellar and black hole scales. Gain insights into numerical modeling techniques and future research directions.

Explore parton distribution functions with Huey-Wen Lin, covering traditional methods, recent calculations, and challenges in particle physics. Gain insights into the latest developments and future directions in this field.

Explore dark matter models, motivations, and detection methods. Covers theoretical approaches, experimental probes, and emerging directions in particle physics and cosmology.

Comprehensive overview of supersymmetry in particle physics, exploring major themes, classification problems, and recent developments in various dimensions, with insights into moduli spaces and connections to non-supersymmetric dynamics.

Explore stellar structure, transport mechanisms, and climate through global oscillation modes and chemical abundances. Gain insights into observational techniques and numerical challenges in astrophysics.

Explore stellar interiors through asteroseismology, examining pulsation modes, rotation rates, and internal mixing processes. Gain insights into stellar physics using observational data and theoretical models.

Comprehensive overview of 1D stellar interior modeling, covering key physics, observational challenges, and recent advancements. Explores transport processes, boundary conditions, and calibration techniques for improving stellar physics understanding.

Explore gravitational waves from black holes, their impact on physics, and new modeling techniques. Learn about precision analysis for detecting new physics in strong gravitational events.

Explore gravitational-wave standard sirens with electromagnetic counterparts, their applications in cosmology, and advancements in detection methods for future experiments and new physics discoveries.

Explores how uncertainty principles in quantum mechanics clarify the relationship between observable quantities and scattering amplitudes, with applications to gravitational wave detection and quantum field theory.

Exploring new physics in gravitational wave astronomy, focusing on precision modeling, theoretical challenges, and emerging techniques for interpreting signals and searching for novel phenomena.

Explores well-posed formulations of gravitational effective field theories, discussing challenges and recent advances in gravitational wave modeling for next-generation experiments and detectors.