On the relation between a zero-point-field-induced inertial effect and the Einstein-de Broglie formula

TL;DR

This paper explores how zero-point electromagnetic radiation scattering by accelerating objects may explain inertia and relates this to the de Broglie wave relation, suggesting a link between electrodynamics and quantum matter wave behavior.

Contribution

It proposes that inertia arises from zero-point field interactions at the Compton frequency, connecting electromagnetic vacuum effects to quantum wave properties.

Findings

Inertia can be derived from zero-point field momentum flux.

Mass interpretation at the Compton frequency leads to de Broglie relation.

A connection between electrodynamics and quantum wave nature is suggested.

Abstract

It has been proposed that the scattering of electromagnetic zero-point radiation by accelerating objects results in a reaction force that may account, at least in part, for inertia [1,2,3]. This arises because of asymmetries in the electromagnetic zero-point field (ZPF) or electromagnetic quantum vacuum as perceived from an accelerating reference frame. In such a frame, the Poynting vector and momentum flux of the ZPF become non-zero. If one assumes that scattering of the ZPF radiation takes place at the level of quarks and electrons constituting matter, then it is possible for both Newton's equation of motion, ${\bf f}=m{\bf a}$, and its relativistic covariant generalization, ${\cal F}=d{\cal P}/d\tau$, to be obtained as a consequence of the non-zero ZPF momentum flux. We now conjecture that this scattering must take place at the Compton frequency of a particle, and that this interpretation of mass leads directly to the de Broglie relation characterizing the wave nature of that particle in motion, $\lambda_B=h/p$. This suggests a perspective on a connection between electrodynamics and the quantum wave nature of matter. Attempts to extend this perspective to other aspects of the vacuum are left for future consideration.