Litcius/Paper detail

Spin dependence of black hole ringdown nonlinearities

Jaime Redondo–Yuste, G. Carullo, Justin L. Ripley, Emanuele Berti, Vítor Cardoso

2024Physical review. D/Physical review. D.57 citationsDOIOpen Access PDF

Abstract

The nonlinear character of general relativity leaves its imprint in the coalescence of two black holes, from the inspiral to the final ringdown stage. To quantify the impact of nonlinearities, we work at second order in black hole perturbation theory and we study the excitation of second-order modes relative to the first-order modes that drive them as we vary the black hole spin and the initial data for the perturbations. The relative amplitude of second-order modes is only mildly dependent on the initial data that we consider, but it strongly decreases for large black hole spins. This implies that the extrapolation of calculations based on the Kerr--conformal field theory correspondence to subextremal Kerr black holes should be viewed with caution.

Topics & Concepts

PhysicsSpinsBlack hole (networking)AmplitudeQuasinormal modeRotating black holeExtrapolationBinary black holeNumerical relativityConformal mapExcitationPerturbation theory (quantum mechanics)Quantum electrodynamicsTheory of relativityGravitationQuantum mechanicsGravitational waveCondensed matter physicsAngular momentumGeometryMathematicsComputer scienceMathematical analysisLink-state routing protocolRouting (electronic design automation)Computer networkRouting protocolPulsars and Gravitational Waves ResearchAstrophysical Phenomena and ObservationsGeophysics and Sensor Technology