
Explore quantum stabilization in dipolar gases and novel many-body states. Discover insights from atomic and nuclear physics, focusing on universality and organizing principles in few-body systems.

Explore universal properties of weakly bound two-neutron halo nuclei in this theoretical physics talk, examining key concepts and implications for few-body systems near unitarity.

Explore the structure of 7H using a t+4n four-body cluster model in this advanced physics talk by Emiko Hiyama from RIKEN, part of a conference on few-body physics and unitarity.

Explore multichannel few-body interactions in ultracold atomic systems and chemical reactions, examining universality principles and their implications across various physics disciplines.

Explore precision tests of statistical dynamics in molecular collisions and reactions, focusing on cutting-edge research in few-body physics and its applications across various scientific disciplines.

Explores universality in Efimov physics, examining few-body systems near unitarity. Discusses theoretical and experimental challenges, connecting atomic and nuclear physics through universal principles.

Explore strong correlations in ultracold fermi gases and polaron physics in atomically thin semiconductors. Discover connections between atomic and nuclear physics through few-body physics near unitarity.

Explore universal physics in few-body systems across atomic and nuclear scales. Discover connections between disparate regimes and their implications for structure and response in quantum systems.

Explore few-body physics near unitarity, focusing on atomic and nuclear systems. Discover universal principles and cross-disciplinary connections in this cutting-edge research area.

Explore quantum phase transitions from few- to many-body physics with Georg Bruun. Discover insights on unitarity, the Efimov effect, and cross-disciplinary connections in atomic and nuclear physics.

Explore gravitational wave scattering off spinning black holes, examining precision modeling techniques and their implications for future detectors and searches for new physics in gravitational wave signals.

Explore scattering phenomena in gravity and electromagnetism with Sam Gralla. Discover connections between field theory and classical relativity, and their implications for gravitational wave detection and analysis.

Explores connections between Poincare invariance, soft theorems, and dissipative dynamics in gravitational wave physics, bridging field theory and classical relativity for advanced detector modeling and new physics searches.

Explore supersymmetry and gravitons in gravitational wave physics, connecting field theory and classical relativity for precision modeling and new physics searches in future experiments.

Explore connections between field theory and gravitational waves, discussing precision modeling techniques for interpreting signals and searching for new physics in future experiments.

Explore advanced gravitational wave modeling techniques, connecting classical relativity, effective field theory, and scattering amplitudes for precise signal interpretation and new physics searches.

Explore gravitational wave detection's impact on physics, from field theory to cosmology. Learn about precision modeling for interpreting signals and searching for new physics in future experiments.

Explore the future of gravitational wave detection with Cosmic Explorer, its potential impact on physics, and the precision modeling required for interpreting signals and searching for new physics.

Explore ultra-relativistic physics frontiers with insights from gravitational wave detection, connecting field theory, stellar evolution, and cosmology. Discover recent advances and future challenges in this cutting-edge field.

Explores precision modeling of gravitational waves using collider methods, discussing recent advances and future challenges in interpreting signals for new physics discoveries and next-gen experiments.

Explores causality constraints on effective field theory of gravity near black holes, connecting gravitational wave detection with field theory and classical relativity for precision modeling and new physics searches.