Anomalous gravitational vacuum fluctuations which act as virtual oscillating dipoles

TL;DR

This paper reviews the peculiar structure of the gravitational vacuum, highlighting anomalous fluctuations called zero-modes, their interactions as virtual negative-mass particles, and the resulting virtual graviton emissions.

Contribution

It introduces new insights into the behavior of gravitational vacuum zero-modes, their interactions, and the properties of virtual gravitons, expanding understanding of vacuum fluctuations.

Findings

Gravitational vacuum exhibits strong, long-lasting zero-modes.

Zero-modes behave as virtual particles with negative mass.

Decay of excited states emits virtual gravitons with spin 1.

Abstract

In this work we review some concepts developed over the last few years: that the gravitational vacuum has, even at scales much larger than the Planck length, a peculiar structure, with anomalously strong and long-lasting fluctuations called "zero-modes"; and that these vacuum fluctuations behave as virtual particles of negative mass and can interact with each other, leading to the formation of weakly bound states. The bound states make up a continuum, allowing at each point of spacetime the local excitation of the gravitational vacuum through the coupling with matter in a coherent state. The spontaneous or stimulated decay of the excited states leads to the emission of virtual gravitons with spin 1 and large p/E ratio. In this paper we also expand and discuss in physical terms several important new details concerning the zero-mode interactions, the dynamics of virtual particles with negative mass and the properties of virtual gravitons.