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Transport coefficients in AdS/CFT and quantum gravity corrections due to a functional measure

1 Pith paper cite this work. Polarity classification is still indexing.

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abstract

The presence of a functional measure is scrutinized on both sides of the dual gauge/gravity correspondence. Corrections to the transport coefficients in relativistic hydrodynamics are obtained using the linear response procedure. In particular, using first-order hydrodynamics, the shear viscosity, entropy density, diffusion constant, and speed of sound are shown not to acquire any corrections from the functional measure of gravity, for a Minkowski background metric. On the other hand, the energy density, the pressure, the relaxation time, the bulk viscosity, the decay rate of sound waves, and coefficients of conformal traceless tensor fields, are shown to carry significant quantum corrections due to the functional measure, even for a flat background. They all acquire an imaginary part that reflects the instability of the strongly-coupled fluids on the boundary CFT. This opens up the possibility of testing quantum gravity with the quark-gluon plasma.

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representative citing papers

Cosmological phase transitions from the functional measure

hep-ph · 2025-02-13 · conditional · novelty 6.0

In the minimal modified functional measure model, a logarithmic scalar-potential correction can make the electroweak transition strongly first order, and future gravitational-wave observatories could probe the Higgs trilinear coupling at a level competitive with near-future colliders.

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  • Cosmological phase transitions from the functional measure hep-ph · 2025-02-13 · conditional · none · ref 13 · internal anchor

    In the minimal modified functional measure model, a logarithmic scalar-potential correction can make the electroweak transition strongly first order, and future gravitational-wave observatories could probe the Higgs trilinear coupling at a level competitive with near-future colliders.