Photon Damping in One-Loop HTL Perturbation Theory
arXiv:1112.6065 · doi:10.1007/JHEP04(2012)071
Abstract
We determine the damping rates of slow-moving photons in next-to-leading order hard-thermal-loop perturbation of massless QED. We find both longitudinal and transverse rates finite, positive, and equal at zero momentum. Various divergences, light-cone and at specific momenta, but not infrared, appear and cancel systematically.
15 pages, discussion extended and references added
References in corpus (9)
- NNLO hard-thermal-loop thermodynamics for QCD
- Hard-Thermal-Loop Corrections in Leptogenesis II: Solving the Boltzmann Equations
- Hard thermal loops in the real-time formalism
- The fermion mass at next-to-leading order in the HTL effective theory
- Refractive Index of Light in the Quark-Gluon Plasma with the Hard-Thermal-Loop Perturbation Theory
- Quark Number Susceptibility and Thermodynamics in HTL approximation
- The long wavelength limit of hard thermal loop effective actions
- Hard-thermal-loop QCD Thermodynamics
- Phase Structure of Thermal QCD/QED:A Gauge Invariant Solution of the HTL Resummed Improved Ladder Dyson-Schwinger Equation
Cited by in corpus (6)
- Three-loop HTLpt thermodynamics at finite temperature and chemical potential
- Dilepton rate and quark number susceptibility with the Gribov action
- An introduction to Thermal Field Theory and Some of its Application
- Hard Thermal Loop -- theory and applications
- NLO quark self-energy and dispersion relation using the hard thermal loop resummation
- NLO Dispersion Laws for Slow-Moving Quarks in HTL QCD