Pith. sign in

Physics of Debye-Waller Factors

1 Pith paper cite this work. Polarity classification is still indexing.

1 Pith paper citing it
abstract

This note has no new results and is therefore not intended to be submitted to a "research" journal in the foreseeable future, but to be available to the numerous individuals who are interested in this issue. The Debye-Waller factor is the ratio of the coherent scattering or absorption cross section of a photon or electron by particles bound in a complex system to the value for the same process on an analgous free particle. It is often interpreted also as the probability of the coherent process, normalized to unity, with the difference between unity and the Debye Waller factor interpreted as the probability of incoherent processes. The Debye-Waller factor is then interpreted as a measure of decoherence. The breakdown of this description for a test particle which cannot give or lose energy is not generally appreciated. Prime examples are: Bragg scattering, the M\"ossbauer effect and related phenomena at zero temperature. The physics of the change in the interpretation of the Debye-Waller factor is summarized here in a hopefully pedagogical manner.

citation-role summary

background 1

citation-polarity summary

fields

hep-ph 1

years

2026 1

verdicts

CONDITIONAL 1

roles

background 1

polarities

unclear 1

representative citing papers

Odderon exchange in high-energy $K^0_S$ regeneration at the LHC

hep-ph · 2026-08-03 · conditional · novelty 5.0

A feasibility study showing LHC neutral-kaon regeneration could probe the Odderon only with a 1 km-scale beamline, 10^4 kaon decays, and one to two orders of magnitude neutron-background suppression.

citing papers explorer

Showing 1 of 1 citing paper.

  • Odderon exchange in high-energy $K^0_S$ regeneration at the LHC hep-ph · 2026-08-03 · conditional · none · ref 17 · internal anchor

    A feasibility study showing LHC neutral-kaon regeneration could probe the Odderon only with a 1 km-scale beamline, 10^4 kaon decays, and one to two orders of magnitude neutron-background suppression.