Gravitational energy loss in high energy particle collisions: Ultrarelativistic plunge into a multidimensional black hole
Emanuele Berti, M. Cavaglià, Leonardo Gualtieri
Abstract
Open-access reader
Emanuele Berti, M. Cavaglià, Leonardo Gualtieri
Abstract
Open-access reader
We investigate the gravitational energy emission of an ultrarelativistic particle radially falling into a $D$-dimensional black hole. We numerically integrate the equations describing black hole gravitational perturbations and obtain the energy spectra, total energy, and angular distribution of the emitted gravitational radiation. The black hole quasinormal modes for scalar, vector, and tensor perturbations are computed in the WKB approximation. We discuss our results in the context of black hole production at the TeV scale.
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We investigate the gravitational energy emission of an ultrarelativistic particle radially falling into a $D$-dimensional black hole. We numerically integrate the equations describing black hole gravitational perturbations and obtain the energy spectra, total energy, and angular distribution of the emitted gravitational radiation. The black hole quasinormal modes for scalar, vector, and tensor perturbations are computed in the WKB approximation. We discuss our results in the context of black hole production at the TeV scale.
Key concepts: Physics, Black hole (networking), WKB approximation, Gravitational energy, Rotating black hole, Gravitation, Quantum electrodynamics, Gravitational wave