2014
DOI: 10.1142/s0219749914500075
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Quantum correlations — Spin supercurrents

Abstract: The paper concerns some optical phenomena where quantum correlations take place: twophoton and three-photon interference, the photon antibunching, squeezed vacuum. The main properties of quantum correlations are: they do not depend on the distance, do not consume energy, take place for quantum entities both with zero and with nonzero rest mass, take place in the physical vacuum, that is, it is not necessary for the quantum entities to be detected simultaneously. A physical process is discussed which is respons… Show more

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Cited by 11 publications
(14 citation statements)
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“…The temperature T determines the velocity y ( 2 y KT m = ) of thermal chaotic motion of quantum entities (with mass m) that constitute "dark" matter and consequently the velocity of motion of virtual photons (virtual particles pairs) created by those entities. The speed of quantum entities influences the following characteristics of virtual photons: the value of the deflection angle, see Equation (15); the direction and the value of precession frequency v ω , see Equations ((8), (9)). As the virtual photon is a vortex in the physical vacuum consisting of QHOs, the changes in characteristics of virtual photons mean the changes in the characteristics of QHOs as well.…”
Section: The Condition Of Disappearance Of Wave-vortex-spin Processmentioning
confidence: 99%
See 1 more Smart Citation
“…The temperature T determines the velocity y ( 2 y KT m = ) of thermal chaotic motion of quantum entities (with mass m) that constitute "dark" matter and consequently the velocity of motion of virtual photons (virtual particles pairs) created by those entities. The speed of quantum entities influences the following characteristics of virtual photons: the value of the deflection angle, see Equation (15); the direction and the value of precession frequency v ω , see Equations ((8), (9)). As the virtual photon is a vortex in the physical vacuum consisting of QHOs, the changes in characteristics of virtual photons mean the changes in the characteristics of QHOs as well.…”
Section: The Condition Of Disappearance Of Wave-vortex-spin Processmentioning
confidence: 99%
“…Thus QHO as a harmonic oscillator having precessing spin might be classified as a spin vortex, and the frequency of oscillations QHO Ω may be the precession frequency of spin of QHO. Consequently, QHO may possess the properties of such spin vortex as the virtual photon and the expressions similar to (4)-(5),(9) and(14)-(15) hold true as well for QHO, that is:…”
mentioning
confidence: 93%
“…Consequently, one may say about a distant transfer of properties of one quantum object to another. The phenomenon of distant transfer of properties between quantum objects with the properties satisfying conditions (2)-(3) are well-known and has been studied for almost a century, being termed as quantum correlation [11][12][13][14]. At present in quantum mechanics this phenomenon is frequently called "teleportation" as well.…”
Section: Quantum Correlations Of Quantum Objectsmentioning
confidence: 99%
“…One of the arguments in favor of possibility of the emergence of spin supercurrents not only between quantum entities but between photons as well (that is between spin vortices that constitute photons) is the existence of correlation of phases of spatially separated (some kilometers) photons of the same frequency. [19] In [10] this correlation is accounted for by emergence of spin supercurrents between spin vortices that constitute interacting photons.…”
Section: Spin Supercurrentmentioning
confidence: 99%
“…Consequently, the precession motion of the virtual particles pair spin may be introduced and thus a virtual particles pair may be considered as a spin vortex in the physical vacuum. According to conclusion of Boldyreva [10], the precession frequency of the vortex spin v ω equals frequency q ω of wave function of quantum entity, that is:…”
Section: Introductionmentioning
confidence: 99%