Incompressible Fluids of the de Sitter Horizon and Beyond
arXiv:1110.3792 · doi:10.1007/JHEP05(2012)107
Abstract
There are (at least) two surfaces of particular interest in eternal de Sitter space. One is the timelike hypersurface constituting the lab wall of a static patch observer and the other is the future boundary of global de Sitter space. We study both linear and non-linear deformations of four-dimensional de Sitter space which obey the Einstein equation. Our deformations leave the induced conformal metric and trace of the extrinsic curvature unchanged for a fixed hypersurface. This hypersurface is either timelike within the static patch or spacelike in the future diamond. We require the deformations to be regular at the future horizon of the static patch observer. For linearized perturbations in the future diamond, this corresponds to imposing incoming flux solely from the future horizon of a single static patch observer. When the slices are arbitrarily close to the cosmological horizon, the finite deformations are characterized by solutions to the incompressible Navier-Stokes equation for both spacelike and timelike hypersurfaces. We then study, at the level of linearized gravity, the change in the discrete dispersion relation as we push the timelike hypersurface toward the worldline of the static patch. Finally, we study the spectrum of linearized solutions as the spacelike slices are pushed to future infinity and relate our calculations to analogous ones in the context of massless topological black holes in AdS.
27 pages, 8 figures
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- Interpolating geometries and the stretched dS horizon
- Entropy of causal diamond ensembles
- Petrov type I Condition and Dual Fluid Dynamics
- Flat space gravity at finite cutoff
- Fluid-gravity correspondence in the scalar-tensor theory of gravity: (in)equivalence of Einstein and Jordan frames
- Petrov type I Spacetime and Dual Relativistic Fluids
- Petrov type I Condition and Rindler Fluid in Vacuum Einstein-Gauss-Bonnet Gravity
- Effective metric in fluid-gravity duality through parallel transport: a proposal
- Moduli Stabilization and the Holographic RG for AdS and dS
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- Gravity dual of Navier-Stokes equation in a rotating frame through parallel transport
- A hydrodynamical description of gravitational waves
- Solution-generating transformations in duality-invariant theories and the fluid/gravity correspondence