energy definition and dark energy: a thermodynamic analysis

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ID: 247806
2018
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Ranked #29 of 103 articles by views in biotechnology reports (amsterdam, netherlands)

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Abstract
Accepting the Komar mass definition of a source with energy-momentum tensor Tμν and using the thermodynamic pressure definition, we find a relaxed energy-momentum conservation law. Thereinafter, we study some cosmological consequences of the obtained energy-momentum conservation law. It has been found out that the dark sectors of cosmos are unifiable into one cosmic fluid in our setup. While this cosmic fluid impels the universe to enter an accelerated expansion phase, it may even show a baryonic behavior by itself during the cosmos evolution. Indeed, in this manner, while Tμν behaves baryonically, a part of it, namely, Tμν(e) which is satisfying the ordinary energy-momentum conservation law, is responsible for the current accelerated expansion.
Reference Key
moradpour2018advancesenergy Use this key to autocite in the manuscript while using SciMatic Manuscript Manager or Thesis Manager
Authors ;H. Moradpour;J. P. Morais Graça;I. P. Lobo;I. G. Salako
Journal biotechnology reports (amsterdam, netherlands)
Year 2018
DOI
10.1155/2018/7124730
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