The Quantum Potential … and the Quantum Vacuum

Robert Carroll

Salehi, Hadi, H. Motavali, Mehdi Golshani

We study a model for analyzing the effect of a principal violation of the Lorentz-invariance on the structure of vacuum. The model is based on the divergence theory developed by Salehi (1997). It is shown that the divergence theory can be used to model an ensemble of particles. The ensemble is characterized by the condition that its members are basically at rest in the rest frame of a preferred inertial observer in vacuum. In this way we find a direct dynamical interplay between a particle and its associated ensemble. We show that this effect can be understood in terms of the interaction of a particle with a relativistic pilot wave through an associated quantum potential.

Jincheng Zhang

This paper proposes a novel theoretical framework, termed Vacuum Quantum Coherence Channels (VQCC), centered on the concept that fluctuations within the vacuum state constitute a stable and predictable information pathway. Traditional understanding of the vacuum as purely random noise is challenged, suggesting a structured and potentially exploitable environment. We posit that the inherent correlations within vacuum fluctuations—represented mathematically as [Cv]—form a channel capable of transmitting information. This framework draws upon recent advancements in high-sensitivity quantum optics to support the existence of this channel and its potential implications, suggesting a previously unrecognized communication structure within the vacuum. The potential implications for fundamental physics and technology, including a possible pathway toward novel communication methods, are explored. The proposed model necessitates a re-evaluation of our understanding of the vacuum and its role in the universe.

Jincheng Zhang

This paper introduces the concept of a Vacuum Fluctuation Synchronization Network (VFSN), proposing a paradigm shift in our understanding of the quantum vacuum. The core argument centers on the hypothesis that vacuum fluctuations are not inherently random and independent events, but rather may exhibit synchronization patterns. This synchronization is explored through the lens of ultra-precise quantum vacuum measurements, suggesting potential implications for fundamental physics and potentially deserving of consideration for Nobel Prize recognition. The VFSN framework offers a novel approach to investigating the nature of the quantum vacuum and its possible interactions. The research presented herein lays the groundwork for a deeper exploration of this intriguing phenomenon. ---