
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.

Explore neutron star binary mergers, their impact on physics, and precision modeling techniques for gravitational waves. Discover connections between theoretical communities and future experimental challenges.

Exploring gravitational wave data analysis for merger detection: current findings, insights gained, and future prospects in advancing our understanding of the universe and fundamental physics.

Explore advanced techniques for Effective Field Theories, focusing on Hilbert Series and their applications in particle physics research.

Explore advanced techniques for Effective Field Theories, focusing on Hilbert Series and their applications in particle physics research.

Explores the amplitude approach to Effective Field Theories, focusing on advanced techniques for analyzing particle interactions and their implications in theoretical physics.

Explore the amplitude approach to Effective Field Theories in particle physics, focusing on advanced concepts and techniques for postdoctoral researchers and PhD students in theoretical physics.

Explore advanced techniques for calculating in Effective Field Theories, focusing on systematic approaches to describe physics at different scales using relevant degrees of freedom.

Explore positivity constraints on Effective Field Theories in particle physics, focusing on advanced concepts and techniques for postdoctoral fellows and PhD students in theoretical physics.

Explore positivity constraints on Effective Field Theories in particle physics, focusing on advanced concepts and applications in high-energy phenomenology.

Explores the amplitude approach to Effective Field Theories, focusing on advanced techniques and applications in particle physics and high-energy phenomenology.