Corrections to Hawking Radiation from Asteroid Mass Primordial Black Holes: I. Formalism of Dissipative Interactions in Quantum Electrodynamics
arXiv:2210.01914 · doi:10.1103/PhysRevD.107.045004
Abstract
Primordial black holes (PBHs) within the mass range g are a favorable candidate for describing the all of the dark matter content. Towards the lower end of this mass range, the Hawking temperature, , of these PBHs is keV, allowing for the creation of electron -- positron pairs; thus making their Hawking radiation a useful constraint for most current and future MeV surveys. This motivates the need for realistic and rigorous accounts of the distribution and dynamics of emitted particles from Hawking radiation in order to properly model detected signals from high energy observations. This is the first in a series of papers to account for the correction to the Hawking radiation spectrum. We begin by the usual canonical quantization of the photon and spinor (electron/positron) fields on the Schwarzschild geometry. Then we compute the correction to the rate of emission by standard time dependent perturbation theory from the interaction Hamiltonian. We conclude with the analytic expression for the dissipative correction, i.e. corrections due to the creation and annihilation of electron/positrons in the plasma.
30 pages, 1 figure
References in corpus (15)
- Primordial Black Holes as Dark Matter
- Stochastic gravitational waves associated with the formation of primordial black holes
- Direct Detection of Hawking Radiation from Asteroid-Mass Primordial Black Holes
- Primordial Black Hole Evaporation and Dark Matter Production: I. Solely Hawking radiation
- Near future MeV telescopes can discover asteroid-mass primordial black hole dark matter
- Primordial Black Hole Dark Matter and the LIGO/Virgo observations
- Do Evaporating Black Holes Form Photospheres?
- Hawking radiation by spherically-symmetric static black holes for all spins: I -- Teukolsky equations and potentials
- The 511 keV Excess and Primordial Black Holes
- A new mechanism for primordial black hole formation during reheating
- Bremsstrahlung Effects around Evaporating Black Holes
- Impacts of Jets and Winds From Primordial Black Holes
- The Sensitivity of Future Gamma-Ray Telescopes to Primordial Black Holes
- Primordial Black Hole Microlensing: The Einstein Crossing Time Distribution
- Correction to black hole radiation due to pair annihilation