Quantum corrections to the classical field equations, induced by a scale dependent gravitational constant, are analyzed in the case of the static isotropic metric. The requirement of general covariance for the resulting non-local effective field equations puts severe restrictions on the nature of the solutions that can be obtained. In general the existence of vacuum solutions to the effective field equations restricts the value of the gravitational scaling exponent $\nu^{-1}$ to be a positive integer greater than one. We give further arguments suggesting that in fact only for $\nu^{-1}=3$ consistent solutions seem to exist in four dimensions
AbstractWe discuss a Modified Field Theory (MOFT) in which the number of fields can vary. It is show...
The running of Newton's constant can be taken into account by considering covariant, non local gener...
We show that general relativity coupled to a quantum field theory generically leads to non-local eff...
AbstractQuantum corrections to the classical field equations, induced by a scale dependent gravitati...
Corrections are computed to the classical static isotropic solution of general relativity, arising f...
We discuss the nature of quantum field theories involving gravity that are classically scale-invaria...
We consider a linearized, effective quantum theory of gravitation which is cut off at a low energy s...
Quantum gravity can determine the dependence of gauge couplings in a scalar field, which is related ...
We study the Gauss-Bonnet (GB) term as the leading higher-curvature correction to pure Einstein grav...
In this work nonperturbative aspects of quantum gravity are investigated using the lattice formulati...
A nonlocal quantum gravity theory is presented which is finite and unitary to all orders of perturba...
The cosmological constant problem stems from treating quantum field theory and general relativity as...
We consider corrections to the Einstein-Hilbert action which contain both higher order and nonlocal ...
The Cosmological Constant Problem is re-examined from an effective field theory perspective. While t...
An effective quantum theory of gravitation in which gravity weakens at energies higher than ∼10−3 e...
AbstractWe discuss a Modified Field Theory (MOFT) in which the number of fields can vary. It is show...
The running of Newton's constant can be taken into account by considering covariant, non local gener...
We show that general relativity coupled to a quantum field theory generically leads to non-local eff...
AbstractQuantum corrections to the classical field equations, induced by a scale dependent gravitati...
Corrections are computed to the classical static isotropic solution of general relativity, arising f...
We discuss the nature of quantum field theories involving gravity that are classically scale-invaria...
We consider a linearized, effective quantum theory of gravitation which is cut off at a low energy s...
Quantum gravity can determine the dependence of gauge couplings in a scalar field, which is related ...
We study the Gauss-Bonnet (GB) term as the leading higher-curvature correction to pure Einstein grav...
In this work nonperturbative aspects of quantum gravity are investigated using the lattice formulati...
A nonlocal quantum gravity theory is presented which is finite and unitary to all orders of perturba...
The cosmological constant problem stems from treating quantum field theory and general relativity as...
We consider corrections to the Einstein-Hilbert action which contain both higher order and nonlocal ...
The Cosmological Constant Problem is re-examined from an effective field theory perspective. While t...
An effective quantum theory of gravitation in which gravity weakens at energies higher than ∼10−3 e...
AbstractWe discuss a Modified Field Theory (MOFT) in which the number of fields can vary. It is show...
The running of Newton's constant can be taken into account by considering covariant, non local gener...
We show that general relativity coupled to a quantum field theory generically leads to non-local eff...