ANISOTROPY OF THE BACKGROUND MICROWAVE RADIATION OF THE UNIVERSE AND MASSIVE PHOTON PAIRS
Abstract
The paper considers the issue of the anomalously low temperature dispersion of the cosmic microwave background (CMB) of the Universe, which was discovered by researchers R. Penrose and V. Gurzadyan according to the data of the WMAP and Planck missions. A new explanation of this phenomenon is given as evidence of residual traces in the CMB after the occurrence of multiple instabilities in the vacuum phase of matter in the first moments of the development of our Universe. It is these instabilities that have become the centers of the emergence of the fundamental mass of matter – massive photon pairs (ultralight scalar bosons). Theoretical and experimental evidence of the connection of CMB with massive photon pairs is presented using data from the Interball-Tail Probe, RHESSI and XMM-Newton missions.
References
2.Smoot G.F. Structure in the COBE differential microwave radiometer first-year maps// The Astrophysical Journal.- IOP Publishing. 1992. Vol. 396. P. L1-L5.
3.Oficialnyj sajt missii WMAP http://www.wmap.gsfc.gov
4. Oficialnyj sajt missii Planck http://www.esa.int/Science_Exploration/Space_Scienc e/Planck
5.V.G. Gurzadyan and R. Penrose. On CCpredicted concentric low-variance circles in the CMB sky// Eur.Phys.J. Plus 2013. 128. 22.1
6.V.G. Gurzadyan and R. Penrose. CCC and Fermi paradox // Oficialnyj sajt mezhdunarodnogo nauchnogo arhiva 2015. arXiv:1512.00554v2. URL: https://arxiv.org.
7.Chefranov S.G, Novikov E.A. Gidrodinamicheskie vakuumnye istochniki samozarozhdeniya temnoj materii v uskorenno rasshiryayushejsya Vselennoj bez “Bolshogo Vzryva”// Zhurnal Eksperimentalnoj i Teoreticheskoj Fiziki. 2010. T.138. Vyp. 5(11). S. 830-843 [S. G. Chefranov S. G. Novikov E. A. Hydrodynamic vacuum sources of dark matter selfgeneration in accelerated universe without Big Bang. Journal of Experimental and Theoretical Physics. 2010. Vol. 111. № 5. P.P. 731-743].
8.Gliner E.B. Algebraicheskie svojstva tenzora energii-impulsa i vakuumopodobnoe sostoyanie materii // Zhurnal Eksperimentalnoj i teoreticheskoj Fiziki. 1965. T.49. S. 542 [Gliner E.B. Algebraic properties of the Energy-Momentum Tensor and Vacuum-Like States of Matter. Journal of E7.
9.Gliner E.B. Vakuumopodobnoe sostoyanie sredy i fridmanovskaya kosmologiya // Doklady Akademii Nauk SSSR. 1970. T.192. №4 S. 771-774 xperimental and Theoretical Physics. 1966. Vol.22. №2. P.P. 378-372]
10. L.D. Landau, E.M. Lifshic // Teoriya polya. Nauka. Moskva. 1973.
11. Mirzoeva I.K. Energeticheskij spektr vremennyh profilej slabyh vspleskov myagkoj komponenty rentgenovskogo izlucheniya Solnca. // Pisma v Astronomicheskij zhurnal. 2005. T.31. №1. S.57. [I. K. Mirzoeva Energy Spectrum of the Time Profiles for Weak Solar Soft X-ray Bursts. Astronomy Letters. 2005. Vol.31. №1. P.57]
12. Mirzoeva I.K. Padenie intensivnosti rentgenovskogo izlucheniya Solnca v diapazone energij ot 2 do 15 keV i nagrev solnechnoj korony // Fizika plazmy. 2013. T.39. №4. S.355-366. [Mirzoeva I.K. Reduction in the Intensity of Solar X-ray Emission in the 2- to 15-keV Photon Energy Rangy and Heating of the Solar Corona. Plasma Physics Reports. 2013. Vol.39. №4. P.P. 355-366]
13. Mirzoeva I.K. Melkomsshtabnaya struktura teplovogo rentgenovskogo fona solnechnoj korony i mikrovspyshek v diapazone energij ot 3 do 16 keV// Fizika plazmy. 2018. T.44. №1 . S.102-111. [Mirzoeva I. K. Small-Scale Structure of Thermal XRay Background of the Solar Corona and Microflares in the Photon Energy Range of 3-16 keV. Plasma Physics Reports. 2018. Vol. 44. №1. P.P.102-111]
14. Mirzoeva I.K. Massivnye fotonnye pary i osobennosti izmenenij rentgenovskogo fona solnechnoj korony i magnitosfery Zemli// Eurasian science journal. 2020. №76. Vol. 2, P.P. 4246. [ Mirzoeva I.K. Massive photon pairs and features of changes in the X-ray background of the solar corona and the Earth's magnetosphere. Eurasian science journal. 2020. №76. Vol. 2, P.P. 42-46.]
15. Mirzoeva I.K., Chefranov S.G. Variacii intensivnosti rentgenovskogo izlucheniya solnechnoj korony i nagrev koronalnoj plazmy v svete kvantovoj teorii fotonnyh par // Fizika plazmy. 2018. T.44. №10. S.791-797[Mirzoeva I.K., Chefranov S.G. Variations in the X-ray Intensity of the Solar Corona and Heating of the Coronal Plasma in the Context of the Quantum Theory of Photon Pairs. Plasma Physics Reports. 2018. Vol. 44. №10. P.P. 920 - 925].
16. V.G. Gurzadyan, A.A Kocharyan, A.Stepanian. On the Lambda-evolution of galaxy clustars // Oficialnyj sajt mezhdunarodnogo nauchnogo arhiva. 2020. arXiv: 2001.02634v2 [astro-ph.Co].
CC BY-ND
A work licensed in this way allows the following:
1. The freedom to use and perform the work: The licensee must be allowed to make any use, private or public, of the work.
2. The freedom to study the work and apply the information: The licensee must be allowed to examine the work and to use the knowledge gained from the work in any way. The license may not, for example, restrict "reverse engineering."
2. The freedom to redistribute copies: Copies may be sold, swapped or given away for free, in the same form as the original.
