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The spherical perfect fluid collapse with pressure in the cosmological background

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arxiv 1301.1480 v2 pith:HFN4SZMA submitted 2013-01-08 gr-qc astro-ph.GA

classification gr-qcastro-ph.GA
keywords structureblackcosmologicalholehorizonpressurebackgroundfluid
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We have constructed a spherically symmetric structure model in a cosmological background filled with perfect fluid with non-vanishing pressure and studied its quasi-local characteristics. This is done by using the Lema\^{i}tre solution of the Einstein equations and suggesting an algorithm to integrate it numerically. The result shows intriguing effects of the pressure inside the structure. The evolution of the central black hole within the FRW universe, its decoupling from the expanding parts of the model, the structure of its space-like apparent horizon, the limiting case of the dynamical horizon tending to a slowly evolving horizon, and the decreasing mass in-fall to the black hole is also studied. The quasi-local features of this cosmological black hole may not be inferred from the weak field approximation although the gravity outside the structure is very weak.

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  1. Inhomogeneous model with a space dependent Cosmological Constant

    gr-qc 2025-01 conditional novelty 6.0 of 10

    An inhomogeneous Lemaitre model with a space-dependent cosmological constant and a unified dark fluid can reproduce the local and early-universe Hubble constants and generates testable predictions for expansion rates ...

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