Quantum Electrodynamics of Casimir Momentum: Momentum of the Quantum Vacuum?
Sebastien Kawka (LPMMC), Bart Van Tiggelen (LPMMC)

TL;DR
This paper develops a quantum theory demonstrating that the electromagnetic vacuum can possess a finite, measurable momentum, contributing to the overall momentum of matter, and provides estimates for the effect's magnitude.
Contribution
It introduces a non-relativistic quantum framework for calculating the vacuum's linear momentum, extending previous semi-classical approaches.
Findings
Quantum vacuum has a finite contribution to linear momentum.
The effect is theoretically confirmed and quantifiable.
New estimates suggest possible achievable speeds due to vacuum momentum.
Abstract
The electromagnetic vacuum is known to have energy. It has been recently argued that the quantum vacuum can possess momentum, that adds up to the momentum of matter. This ``Casimir momentum'' is closely related to the Casimir effect, in which case energy is exchanged. In previous theory it was treated semi-classically. We present a non-relativistic quantum theory for the linear momentum of electromagnetic zero-point fluctuations, considering an harmonic oscillator subject to crossed, quasi-static magnetic and electric and coupled to the quantum vacuum. We derive a contribution of the quantum vacuum to the linear pseudo-momentum and give a new estimate for the achievable speed. Our analysis show that the effect exists and that it is finite.
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Taxonomy
TopicsQuantum Electrodynamics and Casimir Effect · Quantum and Classical Electrodynamics · Advanced Mathematical Theories and Applications
