Thermalization with a chemical potential from AdS spaces
Damian Galante, Martin Schvellinger

TL;DR
This paper investigates the thermalization process in holographic models with a chemical potential, revealing how charge influences thermalization times using AdS space models and various probes.
Contribution
It systematically analyzes the impact of black hole charge on thermalization times in AdS/CFT, extending understanding beyond neutral black holes.
Findings
Thermalization times are larger for charged black holes compared to Schwarzschild-AdS black holes.
Increasing black hole charge leads to longer thermalization times.
The behavior of probes is consistent across different chemical potential values.
Abstract
The time-scale of thermalization in holographic dual models with a chemical potential in diverse number of dimensions is systematically investigated using the gauge/gravity duality. We consider a model with a thin-shell of charged dust collapsing from the boundary toward the bulk interior of asymptotically anti-de Sitter (AdS) spaces. In the outer region there is a Reissner-Nordstr\"om-AdS black hole (RNAdS-BH), while in the inner region there is an anti-de Sitter space. We consider renormalized geodesic lengths and minimal area surfaces as probes of thermalization, which in the dual quantum field theory (QFT) correspond to two-point functions and expectation values of Wilson loops, respectively. We show how the behavior of these extensive probes changes for charged black holes in comparison with Schwarzschild-AdS black holes (AdS-BH), for different values of the black hole mass and…
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