The Formation of the Universe: Conjectures

preprint2020arXivOpen access

Abstract

This article puts forward a model of the formation of the universe, whose essential novel ingredient is a pre-Universe reservoir RU\mathrm{R_U} with neither space nor time dimensions, in interaction with the universe U. U results from a process of apparition of spacetime entities emanating from the ur-elements in RU\mathrm{R_U}. The analysis of this apparition relies on a few principles like the second law and the principle of conservation of energy, applied to the thermodynamic system U ∪ RU\cup\ \mathrm{R_U}, which is closed. The principle of conservation of energy does not apply to U alone. The second law must be understood as ruling the transfer of entropy from RU\mathrm{R_U} to U, which is as small as one bit i.e., kBln⁡2k_B \ln 2 per spacetime entity. In this context, it is shown that the pressure pp of the Universe is negative and that time and space are decoupled. We interpret the spacetime entities as elementary black holes (EBHs) at a Planckian scale (their entropy of one bit as resulting from quantum entanglement?). These EBHs with a constant entropy kBln⁡2k_B\ln 2 own possibly various angular momenta and electric charges; their statistics obeys a Boltzmann distribution, if one considers the rotating and charged EBHs as high energy states of the Schwarzschild EBH. Assuming that the total mass-energy of the EBHs appeared up to the present epoch is the total mass-energy of the observable universe, ≈35.3×1053\approx 35.3\times10^{53} kg, we find T≈4.1 TPT\approx 4.1\ T_P, a temperature interpreted as the temperature of apparition of the EBHs. Incidentally this model gives a possible explanation to non-local interactions, through the hidden presence of RU\mathrm{R_U}, in reason of the absence of time and space.

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