Universes inside a Λ\Lambda black hole

We address the question of universes inside a $\Lambda$ black hole which is described by a spherically symmetric globally regular solution to the Einstein equations with a variable cosmological term $\Lambda_{\mu\nu}$, asymptotically $\Lambda g_{\mu\nu}$ as $r\to 0$ with $\Lambda$ of the scale of symmetry restoration. Global structure of spacetime contains an infinite sequence of black and white holes, vacuum regular cores and asymptotically flat universes. Regular core of a $\Lambda$ white hole models the initial stages of the Universe evolution. In this model it starts from a nonsingular nonsimultaneous big bang, which is followed by a Kasner-type anisotropic expansion. Creation of a mass occurs mostly at the anisotropic stage of quick decay of the initial vacuum energy. We estimate also the probability of quantum birth of baby universes inside a $\Lambda$ black hole due to quantum instability of the de Sitter vacuum.Comment: REVTEX, 9 pages, 13 figures. To appear in Physics Letters

Многогранность квантовой теории

The current state of art in quantum theory and the main stages of its creation have been considered. Interpretations and formulations of quantum mechanics, thought EPR experiment, Bell’s inequalities, entanglement, hidden variables, quantum non-locality and quantum teleportation have been analyzed.Рассмотрено современное состояние квантовой теории и основные этапы её создания. Проанализированы интерпретации и формулировки квантовой механики, мысленный эксперимент Эйнштейна-Подольского-Розена, неравенства Белла, запутанные состояния, скрытые параметры, квантовая нелокальность иквантовая телепортация

Quantum cosmology with rotation

The rotation of astronomical objects may be of a cosmological origin due to the Universe's specific angular momentum estimates proving to exceed those for spiral galaxies. The problem is expected to be solved in the framework of quantum geometrodynamics. © World Scientific Publishing Company

Quantum cosmology with rotation

The rotation of astronomical objects may be of a cosmological origin due to the Universe's specific angular momentum estimates proving to exceed those for spiral galaxies. The problem is expected to be solved in the framework of quantum geometrodynamics. © World Scientific Publishing Company

Field interpretation of General Relativity

A field interpretation of General Relativity, without resorting to Einstein-Hilbert's equations, has been presented for three cases: a static centrally symmetric gravitational field, radiation of gravitational waves and a homogeneous isotropic cosmological model. The possibility of an effective Riemannian space being used in General relativity should not been ruled out. © 2018 Published under licence by IOP Publishing Ltd

Field interpretation of General Relativity

A field interpretation of General Relativity, without resorting to Einstein-Hilbert's equations, has been presented for three cases: a static centrally symmetric gravitational field, radiation of gravitational waves and a homogeneous isotropic cosmological model. The possibility of an effective Riemannian space being used in General relativity should not been ruled out. © 2018 Published under licence by IOP Publishing Ltd

On gravitational radiation of microsystems

Intensities of the gravitational radiation from a coalescence of miniholes and quadrupole transitions of hydrogen-like atoms are calculated. The total energies of the background gravitational radiation from the coalescence of miniholes and the graviatom quadrupole transitions prove to be comparable with that from the coalescence of two stellar mass black holes. © 2020 World Scientific Publishing Company

On the Deflection of Light by a Charged Rotating Black Hole

The Kerr-Newman, Schwarzschild, Reissner-Nordstrom, Kerr and Lense-Thirring metrics have been presented. The deflection of light by Kerr-Newman's black hole has been evaluated. Expressions for the law of motion and trajectory of light have been obtained. The black hole is assumed to be slowly rotating. The light impact parameter is considered to be much superior to the gravitational radius and classical radius of the black hole. The deflection of light is both due to attraction by the black hole mass and due to repulsion by its charge and specific angular momentum

Nonlinear scalar and spinor fields simulating perfect fluids

A possibility of simulating a perfect fluid using scalar and spinor fields with different nonlinearities is investigated. Exact cosmological solutions to Einstein's equations with the scalar and spinor fields are compared to the corresponding ones with a perfect fluid with a barotropic equation of state. © 2009 Pleiades Publishing, Ltd