Quantum Vacuum and the Structure of Empty Space–Time
- Authors: Gevorkyan A.1
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Affiliations:
- Institute for Informatics and Automation Problems/Institute of Chemical Physics, NAS of RA
- Issue: Vol 81, No 6 (2018)
- Pages: 843-852
- Section: Elementary Particles and Fields
- URL: https://journal-vniispk.ru/1063-7788/article/view/196063
- DOI: https://doi.org/10.1134/S1063778818060145
- ID: 196063
Cite item
Abstract
We have considered the possibility of formation of a massless particles with spin 1 in the region of negative energies, within the framework of the Weyl-type equation for neutrinos. It is proved that the represented approach allows to get a stable structural formation in the ground state, which can be interpreted as a fundamental massless particle. The structure and properties of this vector boson are studied in detail. The problem of entangling two vector bosons with projections of spins +1 and −1 and, accordingly, the formation of a zero-spin boson is studied within the framework of a complex stochastic matrix equations of the Langevin type. The paper discusses the structure of the Bose particle of a scalar field and the space–time properties of an empty space (quantum vacuum).
About the authors
Ashot Gevorkyan
Institute for Informatics and Automation Problems/Institute of Chemical Physics, NAS of RA
Author for correspondence.
Email: g_ashot@sci.am
Armenia, Yerevan
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