The return of the membrane paradigm? Black holes and strings in the water tap
arXiv:0705.2777 · doi:10.1142/S0218271808012176
Abstract
Several general arguments indicate that the event horizon behaves as a stretched membrane. We propose using this relation to understand gravity and dynamics of black objects in higher dimensions. We provide evidence that (i) the gravitational Gregory-Laflamme instability has a classical counterpart in the Rayleigh-Plateau instability of fluids. Each known feature of the gravitational instability can be accounted for in the fluid model. These features include threshold mode, dispersion relation, time evolution and critical dimension of certain phase transitions. Thus, we argue that black strings break in much the same way as water from a faucet breaks up into small droplets. (ii) General rotating black holes can also be understood with this analogy. In particular, instability and bifurcation diagrams for black objects can easily be inferred. This correspondence can and should be used as a guiding tool to understand and explore physics of gravity in higher dimensions.
This essay received an honorable mention in the Gravity Research Foundation Essay Competition, 2007. v2: Published version
References in corpus (4)
Cited by in corpus (14)
- Ultraspinning instability of rotating black holes
- Black Holes as Lumps of Fluid
- Instability of hyper-compact Kerr-like objects
- Dyonic AdS black holes from magnetohydrodynamics
- Black Holes in Higher-Dimensional Gravity
- Multi-black hole configurations on the cylinder
- Bifurcation of Plasma Balls and Black Holes to Lobed Configurations
- Black hole-black string phase transitions from hydrodynamics
- Thermodynamics of Plasmaballs and Plasmarings in 3+1 Dimensions
- Liquid bridges and black strings in higher dimensions
- Higher dimensional Numerical Relativity: code comparison
- Curvature driven diffusion, Rayleigh-Plateau, and Gregory-Laflamme
- Membrane paradigm realized?
- Large charge operators at large spin from relativistically rotating vortices