We employ the graviton self-energy induced by a massless, minimally coupled (MMC) scalar on de Sitter background to compute the quantum corrections to the gravitational potentials of a static point particle with a mass $M$. The Schwinger-Keldysh formalism is used to derive real and causal effective field equations. When evaluated at the one-loop order, the gravitational potentials exhibit a secular decrease in the observed gravitational coupling $G$. This can also be interpreted as a (time dependent) anti-screening of the mass $M$
We use a simplified formalism to recompute the single graviton loop contribution to the self-mass of...
We use a simplified formalism to recompute the single graviton loop contribution to the self-mass of...
We resor to the covariant quantization treatment and investigate the long-distance, low-energy, lead...
We employ the graviton self-energy induced by a massless, minimally coupled (MMC) scalar on de Sitte...
We employ the graviton self-energy induced by a massless, minimally coupled (MMC) scalar on de Sitte...
We employ the graviton self-energy induced by a massless, minimally coupled (MMC) scalar on de Sitte...
We exploit a recent computation of one graviton loop corrections to the self-mass [D. Glavan et al.,...
We derive the leading quantum corrections to the gravitational potentials in a de Sitter background,...
We calculate the one-loop graviton vacuum polarization induced by a massless, nonminimally coupled s...
We consider single graviton loop corrections to the effective field equation of a massless, minimall...
We use a simplified formalism to recompute the single graviton loop contribution to the self-mass of...
We revisit the calculation of matter quantum effects on the graviton self-energy on a flat Minkowski...
Abstract. GRT predicts the existence of relativistic corrections to the static Newtonian potential, ...
We investigate the long-distance, low-energy, leading quantum corrections to gravitational potential...
We examine the corrections to the lowest order gravitational interactions of massive particles arisi...
We use a simplified formalism to recompute the single graviton loop contribution to the self-mass of...
We use a simplified formalism to recompute the single graviton loop contribution to the self-mass of...
We resor to the covariant quantization treatment and investigate the long-distance, low-energy, lead...
We employ the graviton self-energy induced by a massless, minimally coupled (MMC) scalar on de Sitte...
We employ the graviton self-energy induced by a massless, minimally coupled (MMC) scalar on de Sitte...
We employ the graviton self-energy induced by a massless, minimally coupled (MMC) scalar on de Sitte...
We exploit a recent computation of one graviton loop corrections to the self-mass [D. Glavan et al.,...
We derive the leading quantum corrections to the gravitational potentials in a de Sitter background,...
We calculate the one-loop graviton vacuum polarization induced by a massless, nonminimally coupled s...
We consider single graviton loop corrections to the effective field equation of a massless, minimall...
We use a simplified formalism to recompute the single graviton loop contribution to the self-mass of...
We revisit the calculation of matter quantum effects on the graviton self-energy on a flat Minkowski...
Abstract. GRT predicts the existence of relativistic corrections to the static Newtonian potential, ...
We investigate the long-distance, low-energy, leading quantum corrections to gravitational potential...
We examine the corrections to the lowest order gravitational interactions of massive particles arisi...
We use a simplified formalism to recompute the single graviton loop contribution to the self-mass of...
We use a simplified formalism to recompute the single graviton loop contribution to the self-mass of...
We resor to the covariant quantization treatment and investigate the long-distance, low-energy, lead...