Solving the Effective Field Equations for the Newtonian Potential
arXiv:1007.2662 · doi:10.1088/0264-9381/27/24/245008
Abstract
Loop corrections to the gravitational potential are usually inferred from scattering amplitudes, which seems quite different from how the linearized Einstein equations are solved with a static, point mass to give the classical potential. In this study we show how the Schwinger-Keldysh effective field equations can be used to compute loop corrections to the potential in a way which parallels the classical treatment. We derive explicit results for the one loop correction from the graviton self-energy induced by a massless, minimally coupled scalar.
15 pages, uses LaTeX2e
References in corpus (36)
- General relativity as an effective field theory: The leading quantum corrections
- The dS/CFT Correspondence
- Leading Quantum Correction to the Newtonian Potential
- Quantum Gravity In De Sitter Space
- Quantum Gravitational Corrections to the Nonrelativistic Scattering Potential of Two Masses
- Two Loop Scalar Self-Mass during Inflation
- Complementarity of the Maldacena and Randall-Sundrum Pictures
- Leading Log Solution for Inflationary Yukawa
- On the Quantum Corrections to the Newtonian Potential
- Photon mass from inflation
- One Loop Vaccum Polarization in a Locally de Sitter Background
- Quantum Stability of a w < - 1 Phase of Cosmic Acceleration
- Semiclassical Equations for Weakly Inhomogeneous Cosmologies
- The Fermion Self-Energy during Inflation
- Quantum power correction to the Newton law
- One Loop Graviton Self-Energy In A Locally De Sitter Background
- Production of Massless Fermions during Inflation
- Long Range Forces in Quantum Gravity
- Stochastic semiclassical fluctuations in Minkowski spacetime
- Einstein-Langevin Equations from Running Coupling Constants
- Dynamics of super-horizon photons during inflation with vacuum polarization
- Fermion Mass Generation in de Sitter Space
- Vacuum polarization and photon mass in inflation
- Quantum Gravity Corrections to the One Loop Scalar Self-Mass during Inflation
- Stress Tensor Correlators in the Schwinger-Keldysh Formalism
- Charged Scalar Self-Mass during Inflation
- A Completely Regular Quantum Stress Tensor with
- Gravitational interaction to one loop in effective quantum gravity
- Leading quantum gravitational corrections to scalar QED
- Scalar Field Equations from Quantum Gravity during Inflation
- One Loop Corrected Mode Functions for SQED during Inflation
- Running Coupling Constants, Newtonian Potential and non localities in the Effective Action
- Quantum long-range interactions in general relativity
- Vacuum polarization around stars: nonlocal approximation
- Spin Effects in Long Range Gravitational Scattering
- Yukawa Scalar Self-Mass on a Conformally Flat Background
Cited by in corpus (25)
- Quantum Spacetime Phenomenology
- Locality & Entanglement in Table-Top Testing of the Quantum Nature of Linearized Gravity
- Scalar Contribution to the Graviton Self-Energy during Inflation
- More on the Bending of Light in Quantum Gravity
- Quantum corrections to the gravitational potentials of a point source due to conformal fields in de Sitter
- Quantum Scalar Corrections to the Gravitational Potentials on de Sitter Background
- Graviton Corrections to Maxwell's Equations
- Inflationary Scalars Don't Affect Gravitons at One Loop
- Covariant Vacuum Polarizations on de Sitter Background
- One-loop quantum electrodynamic correction to the gravitational potentials on de Sitter spacetime
- Graviton corrections to the Newtonian potential using invariant observables
- One Loop Field Strengths of Charges and Dipoles on a Locally de Sitter Background
- Time transients in the quantum corrected Newtonian potential induced by a massless nonminimally coupled scalar field
- Representing the Graviton Self-Energy on de Sitter Background
- Implications of minimum-length deformed quantum mechanics for QFT/QG
- Quantum corrections for spinning particles in de Sitter
- One-loop quantum gravitational corrections to the scalar two-point function at fixed geodesic distance
- Quantum gravitational corrections for spinning particles
- Semiclassical Gravity in the Far Field Limit of Stars, Black Holes, and Wormholes
- A Causal Alternative to Feynman's Propagator
- Perturbative quantum damping of cosmological expansion
- Localization of particles in quantum field theory
- Appearances are deceptive: Can graviton have a mass?
- Uniqueness of gravitational constant at low energies from the connection between spin-2 and spin-0 sectors
- The Third Structure Function