
Exploring helium dimers and trimers: from structural imaging to ultrafast dynamics visualization, focusing on few-body physics near unitarity and its implications across various scientific disciplines.

Explore bosons and multi-component fermions near unitarity, focusing on few-body physics challenges in atomic and nuclear systems, with insights on universality and organizing principles.

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.

Exploring twistor amplitudes in gravitational wave modeling, connecting field theory and classical relativity to advance precision in gravitational wave signal interpretation and new physics searches.

Explore theoretical aspects of scattering amplitudes with Nima Arkani-Hamed, covering topics like virtual particles, positive geometries, and loop integrals. Gain insights into cutting-edge particle physics research.

Explore machine learning applications in theoretical physics, from lattice field theory to collider geometry, and its potential impact on various aspects of high-energy physics research.

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.

Juan Maldacena explores fundamental principles of particle physics, quantum field theory, and quantum gravity, discussing reductionism, strong coupling, supersymmetry, and holography in high-energy physics.

Explore tetra-quarks, penta-quarks, and exotic particles in this talk, examining old and new perspectives on their nature, properties, and implications for particle physics.

Explore bootstrap techniques in matrix models and lattice Yang-Mills theory, discussing loop equations, positive constraints, and applications to gauge theories and confinement.

Explore color confinement, flux tubes, and large N gauge theories in this talk on worldsheet theory of confining flux tubes, combining perspectives from various fields of physics.

Explores 1-form symmetries and phase diagrams in Yang-Mills theory, discussing theta angles, lattice perspectives, and line defects to provide insights into color confinement and gauge theory dynamics.

Explore the latest findings on (g-2)m from lattice QCD and experiments, including the 4.2 sigma discrepancy, experimental results, and theoretical contributions in this comprehensive physics talk.

Explores flux tube spectrum and world-sheet axion in color confinement, combining lattice simulations, string theory, and gauge/gravity duality to study non-perturbative phenomena in non-Abelian gauge theories.

Exploring gravity amplitudes on self-dual backgrounds, focusing on scattering amplitudes, MHV generating functionals, and spacetime reconstruction in the context of gravitational wave detection and modeling.

Explore gravitational waveforms for compact binaries using second-order self-force theory. Gain insights into precision modeling for interpreting gravitational-wave events and searching for new physics in signals.

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 numerical relativity for advanced gravitational-wave detection, covering Einstein's equations, wave formulations, and modeling challenges for next-generation observatories and detectors.