# Quantum-corrected rotating acoustic black holes in Lorentz-violating background

## TL;DR

This paper investigates quantum corrections to Hawking radiation from a rotating acoustic black hole within a Lorentz-violating background, revealing temperature modifications and entropy corrections using tunneling and WKB methods.

## Contribution

It introduces quantum corrections to Hawking radiation in acoustic black holes considering Lorentz violation, a novel approach in analogue gravity models.

## Key findings

- Logarithmic correction to black hole entropy
- Temperature change due to Lorentz violation in BEC systems
- Supersonic velocity effects linked to Hawking temperature variations

## Abstract

In this paper we explore the effect of the generalized uncertainty principle and modified dispersion relation to compute Hawking radiation from a rotating acoustic black hole in the tunneling formalism by using the Wentzel-Kramers-Brillouin (WKB) approximation applied to the Hamilton-Jacobi method. The starting point is to consider the planar acoustic black hole metric found in a Lorentz-violating Abelian Higgs model. In our analyzes we investigate quantum corrections for the Hawking temperature and entropy. A logarithmic correction and an extra term that depends on a conserved charge were obtained. We also have found that the changing in the Hawking temperature ${\cal T}_H$ for a dispersive medium due to a Lorentz-violating background accounts for supersonic velocities in the general form $(v_g-v_p)/v_p = \Delta {\cal T}_H/{\cal T}_H\sim10^{-5}$ in Bose-Einstein-Condensate (BEC) systems.