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Quantum entanglement and quantum disentanglement in connection to the ordinary and dark energy of cosmos

Authors:
  • Technical School Center, Maribor

Abstract

The chapter gives an explanation for the ordinary and dark energy density of the cosmos. We present a connection between quantum entanglement and the absence of almost 95.5% of the energy supposed to be contained in the cosmos. The ordinary energy density is equal to half that of Hardy's quantum probability of entanglement ϕ⁵/2, where ϕ= 5-1/2. The reverse of quantum entanglement called quantum disentanglement is consequently one minus ϕ⁵, i.e., 1 -ϕ⁵. Dark energy density is given by one minus ϕ⁵ divided by two, i.e., 1-ϕ⁵/ 2=5ϕ². This result is in full agreement with the numerous previous theoretical predictions as well as being in remarkable agreement with the cosmic measurements and observations. The present chapter takes the view that our current mathematical knowledge and general theories are in position to explain ordinary energy, dark matter and pure dark energy both qualitatively and quantitatively.
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... Thus our picture in the large would entail that +∆ would be sucked by the hyperbolic horizon of pure dark energy at infinity while the +∆ gives the spaceship the needed jolt to go forward. From the preceding picture in the large we can see that by self similarity [38] [39] the suggestion in the small to regard the EM drive devise as analogous to a small black hole emitting a special type of Hawking axion-dark matter radiation is not outlandish and makes a great deal of sense [30]- [37]. We know for instance of an instructive analogy between phonons and the speed of sound on one side and photons and the speed of light on the other side which means that event horizon and its radiation are indeed not unique to black holes and may thus be drawn as we did here to explain NASA's EM drive [38]. ...
... while the two zero sets φ and φ intersect and give us the empty set Aether [30]- [37]. This process takes place all the time and everywhere in our spacetime manifold leading to the sizzling process which we call volume fluctuation. ...
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