Classical and holographic aspects of conformal gravity in four dimensions
I. Lovrekovic

TL;DR
This paper develops boundary conditions and analyzes the asymptotic symmetries of four-dimensional conformal gravity, exploring its holographic duals, canonical structure, and quantum partition functions.
Contribution
It introduces new boundary conditions for conformal gravity, constructs the associated asymptotic symmetry algebra, and computes the one-loop partition function in four and six dimensions.
Findings
Boundary conditions ensure well-defined variational principle.
Asymptotic symmetry algebra is conformal for Minkowski and related boundaries.
One-loop partition functions are computed for 4D and 6D conformal gravity.
Abstract
We formulate new boundary conditions that prove well defined variational principle and finite response functions for conformal gravity (CG). In the Anti--de Sitter/conformal field theory framework, gravity theory that is considered in the bulk gives information about the corresponding boundary theory. The metric is split in the holographic coordinate, used to approach the boundary, and the metric at the boundary. One can consider the quantities in the bulk perturbing the (one dimension lower) boundary metric in holographic coordinate. The response functions to fluctuations of the boundary metric are Brown--York stress energy tensor sourced by the leading term in the expansion of the boundary metric and a Partially Massless Response, specific for CG and sourced by the subleading term in the expansion of the boundary metric. They formulate boundary charges that define the asymptotic…
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Taxonomy
TopicsBlack Holes and Theoretical Physics · Cosmology and Gravitation Theories · Noncommutative and Quantum Gravity Theories
