Национальный цифровой ресурс Руконт - межотраслевая электронная библиотека (ЭБС) на базе технологии Контекстум (всего произведений: 634840)
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Руконтекст антиплагиат система
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Первый авторAgapov
АвторыRozgacheva I.K.
Страниц13
ID404319
АннотацияThe large-scale structure of the Universe is revealed to be characterized by a range of powerlaws. The power-laws are evidences of fractality because they may be interpreted through a conception of the Universe as an assembly of self-similar space–time domains. We accept the hypothesis that the matter of the Universe is described by the scalar charged meson field possessing the rotary symmetry. On basis of the hypothesis, the fractal cosmological model with scale invariant Lagrange’s field equation and Einstein’s equation permitting physical explanation of these properties is constructed. The field energy densities (which are constant) and the space–time metrics of different domains differ in constant factors only. Therefore, the space–time domains are geometrically similar and evolve similarly. Fractal properties of initial cosmological density perturbations remain and lead to presence of the fractal properties of the Universe’s large-scale structure which formed from them. The nonsingular, compacted, pulsating and doubly-connected cosmological model as a partial solution for the homogeneous, isotropic and flat case is constructed. A background radiation power spectrum has been computed. The spectrum is shown to be close to the observable angular power spectrum of the SDSS-quasar distribution on the celestial sphere.
Agapov, A.A. Fractal Properties of the Universe / A.A. Agapov, I.K. Rozgacheva // Вестник Российского университета дружбы народов. Серия: Математика, информатика, физика .— 2013 .— №1 .— С. 191-203 .— URL: https://rucont.ru/efd/404319 (дата обращения: 26.04.2024)

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UDC 524.8 Fractal Properties of the Universe A. A. Agapov∗, I. K. Rozgacheva† ∗ Peoples’ Friendship University of Russia 6, Miklukho-Maklaya str., Moscow, 117198, Russia † VINITI RAS 20, Usievicha str., Moscow, A-190, 125190, Russia Moscow State Pedagogical University, Moscow, Russia The large-scale structure of the Universe is revealed to be characterized by a range of powerlaws. <...> On basis of the hypothesis, the fractal cosmological model with scale invariant Lagrange’s field equation and Einstein’s equation permitting physical explanation of these properties is constructed. <...> The field energy densities (which are constant) and the space–time metrics of different domains differ in constant factors only. <...> Fractal properties of initial cosmological density perturbations remain and lead to presence of the fractal properties of the Universe’s large-scale structure which formed from them. <...> The nonsingular, compacted, pulsating and doubly-connected cosmological model as a partial solution for the homogeneous, isotropic and flat case is constructed. <...> A background radiation power spectrum has been computed. <...> The spectrum is shown to be close to the observable angular power spectrum of the SDSS-quasar distribution on the celestial sphere. <...> Key words and phrases: quasars, large-scale structure, fractal dimension, complex field, rotary symmetry, fractal properties of the large-scale structure, fractal cosmological model, background radiation. 1. <...> Introduction The large-scale structure of the Universe is the structure of the galaxy and quasar distribution in whole observable Universe’s volume. <...> The structure is sponge-like and composed of regions of a higher galaxy number density (filaments and planes of galaxies and galaxy clusters) bordering huge voids. <...> Investigation of geometrical properties of the large-scale structure of the Universe through galaxies, galaxy clusters, quasars and the CMB temperature anisotropy is an important area at present for understanding of galaxy and Universe evolution. <...> Estimation of distances to galaxies is complicated by low quality of spectra, by uncertainty of galaxy peculiar motion and by dependence on a cosmological model determining distance as a function of redshift. <...> The purposes of the present work are: – revealing of the fractal properties of the Universe’s large-scale structure; – construction of the fractal cosmological model permitting physical explanation of these properties; – the data processing on the quasar distribution on the celestial sphere <...>