Gravitational and Inertial Mass of Casimir Energy
Kimball A Milton, Stephen A Fulling, Prachi Parashar, August Romeo, K, V Shajesh, Jeffrey A Wagner

TL;DR
This paper demonstrates that quantum vacuum energy, specifically Casimir energy, gravitates according to the equivalence principle, confirmed through variational methods and extended to semitransparent plates in accelerated frames.
Contribution
It extends previous results by analyzing Casimir energy's gravitational behavior for semitransparent plates and in accelerated frames, supporting the equivalence principle for quantum vacuum energy.
Findings
Casimir energy obeys the equivalence principle for parallel plates.
The gravitational force on Casimir systems equals mass times gravitational acceleration.
Results hold for semitransparent plates and in accelerated (Rindler) frames.
Abstract
It has been demonstrated, using variational methods, that quantum vacuum energy gravitates according to the equivalence principle, at least for the finite Casimir energies associated with perfectly conducting parallel plates. This conclusion holds independently of the orientation of the plates. We review these arguments and add further support to this conclusion by considering parallel semitransparent plates, that is, -function potentials, acting on a massless scalar field, in a spacetime defined by Rindler coordinates. We calculate the force on systems consisting of one or two such plates undergoing acceleration perpendicular to the plates. In the limit of small acceleration we recover (via the equivalence principle) the situation of weak gravity, and find that the gravitational force on the system is just , where is the gravitational acceleration and…
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