Quantum power: a Lorentz invariant approach to Hawking radiation
arXiv:2111.15148 · doi:10.1140/epjc/s10052-022-10167-6
Abstract
Particle radiation from black holes has an observed emission power depending on the surface gravity as \begin{equation}\nonumber P_{\textrm{black hole}} \sim \frac{\hbar κ^2}{6πc^2} = \frac{\hbar c^6}{96πG^2 M^2}\,,\end{equation} while both the radiation from accelerating particles and moving mirrors (accelerating boundaries) obey similar relativistic Larmor powers, \begin{equation}\nonumber P_{\textrm{electron}}= \frac{q^2α^2}{6πε_0 c^3}\,, \quad P_{\textrm{mirror}} =\frac{\hbar α^2}{6πc^2}\,, \end{equation} where is the Lorentz invariant proper acceleration. This equivalence between the Lorentz invariant powers suggests a close relation that could be used to understand black hole radiation. We show that an accelerating mirror with a prolonged metastable acceleration plateau can provide a unitary, thermal, energy-conserved analog model for black hole decay.
arXiv comment4 pages, 3 figures
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- Upon the horizon's verge: Thermal particle creation between and approaching horizons
- Acceleration Radiation of Freely Falling Atoms: Nonlinear Electrodynamic Effects
- Quasinormal Mode Spectroscopy via Horizon-Brightened Quantum Optics