Gravicommunication, Subjectivity and Quantum Entanglement

Abstract

In this work gravicommunication (GC) is introduced, as a new form of communication (different from the classical gravitational waves). GC involves gravitons (particles of gravitation) and manifests itself, particularly, in our subjective experiences. This research is based on quantum modification of the general relativity. The modification includes effects of production /absorption of gravitons, which turn out to have small, but finite mass and electric dipole moment. It is shown, that such gravitons form the dipole Bose-Einstein condensate, even for high temperature. The theory (without fitting parameters) is in good quantitative agreement with cosmological observations. In this theory we got an interface between gravitons and ordinary matter, which very likely exist not only in cosmos, but everywhere, including our body and, especially, our brain. Subjective experiences are considered as a manifestation of that interface. A model of such interface is presented and some new experimentally verifiable aspects of natural neural systems are considered. According to the model, GC can be superluminal, which will solve the problem of quantum entanglement. Probable applications of these ideas include health (brain stimulation), new forms of communication, computational capabilities, energy resources and weapons. Some developed civilizations in the universe may already master GC (with various applications) and so should we.

Emergence of the Laws of Nature in the Developing Entangled Universe

“…Here minus correspond to the past. For = ln (l/ 0 )≈ 91, from (19) we got ≈ −258 . For a while, the growing universe, supported by the quantum interaction, will resist the gravitational instability.…”

“…Particularly, at ρ= 0 , we get ,0 ≃1.5•10 6 cm=15km. Corresponding time ( ), when embryonic galaxies start to form, is determined by (19) with The result is ≈ −187.5 by. So, it took 70.5 by of graviton production to initiate formation of galaxies. ]…”

“…This will influence the effective mass and the flavor of neutrino [17]. This is an example of interface between dark and ordinary matter (Idom), introduced in context of explanation of the phenomena of subjective experiences (qualia) [19] (below). Note, that in frames of the Standard Model, the stability of all three neutrinos ( , , )was a longtime puzzle.…”

“…It will also help to explain synthesis of some particles from the dipolar quantum condensate. Additionally, EDM of gravitons helps to explain qualia [19] and brightens the dark sector of matter (see below).…”

“…In our subjective experiences (qualia) we can actually see and feel the collective effects of the background gravitons [19]. The acting potentials of neurons [21], apparently, create gaps and coherent patterns in the condensate of gravitons.…”