Heat Bath Particle Number Spectrum
Petr Jizba (U. Cambridge)

TL;DR
This paper develops a systematic method using thermal field theory to calculate the particle number spectrum emitted during scattering processes in a heat bath, demonstrated on a scalar particle model.
Contribution
It introduces a new approach employing the thermal largest-time and Dyson-Schwinger equations for calculating particle spectra at finite temperature.
Findings
Method allows calculation of d<N(ω)>/dω to any order
Applied to a scalar scattering model in a photon-electron heat bath
Shows how to compute changes in photon and electron spectra
Abstract
We calculate the number spectrum of particles radiated during a scattering into a heat bath using the thermal largest-time equation and the Dyson-Schwinger equation. We show how one can systematically calculate {d<N(\omega)>}/{d\omega} to any order using modified real time finite-temperature diagrams. Our approach is demonstrated on a simple model where two scalar particles scatter, within a photon-electron heat bath, into a pair of charged particles and it is shown how to calculate the resulting changes in the number spectra of the photons and electrons.
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