Research
Our research programme is organised around several interconnected projects spanning the full pipeline from analytical foundations to production-ready waveform models. Together, these projects deliver the gravitational self-force theory, computational infrastructure, and waveform templates needed for asymmetric-binary science across space- and ground-based gravitational-wave observatories.
Research Themes
Research Projects
Waveform Models
Building the production waveform models that next-generation gravitational-wave data-analysis pipelines will rely on.
Niels Warburton, Barry Wardell, Adam Pound, Chris Whittall, Josh Mathews, Loïc Honet, Susanna Barsanti
Second-order Source
Computing the source for the Einstein field equations at second order in the mass ratio — the foundation for post-adiabatic waveform accuracy.
Sam Upton, Barry Wardell, Adam Pound, Andrew Spiers
Hybrid Models
Connecting self-force and post-Newtonian theory
Zach Nasipak, Barry Wardell, Adam Pound
Merger and Ringdown
Modelling the final orbits, plunge, merger, and ringdown of asymmetric binary systems.
Adam Pound, Ayush Roy, Gabriel Andres Piovano, Geoffrey Compère, Guillaume Lhost, Jørgen Sandøe Musaeus, Loïc Honet, Rodrigo Panosso Macedo
Regularization
Removing the singularities of the point-particle approximation in self-force calculations.
Patrick Bourg, Barry Wardell
Numerical Solvers
Building the high-performance computational infrastructure that underpins self-force calculations.
Analytical Methods
Mathematical structures underpinning the multiscale expansion.
Barry Wardell
Asymptotic Symmetries and Memory
Asymptotic Symmetries and Memory
Adam Pound, Ariadna Metidieri, Kevin Cunningham