The origin of power and acceleration of high-redshift galaxies in the unicentric model of the universe

Recently a unicentric model of our observable universe was proposed. Accordingly, the big bang  was
neither singular event nor invoked by external forces, but rather a frequent event in a cosmic life cycles that occur sequentially or in parallel at the same and/or in different locations of our infinitely large, flat, homogeneous and isotropic parent universe.\\
The progenitor of our big bang was of a measurable size, and its explosion took off accidentally in our neighbourhood.
 In the present study, we use general relativistic numerical calculations to investigate three issues  related to the unicentric model of the universe, namely: 
   (i) Why the surface of the progenitor is most appropriate for the hadron flash to run away, (ii) Why the structure of the progenitor is immune to self-collapse into a hyper-massive black hole, and (iii) if the power and acceleration of high redshift galaxies may be connected to the BB-explosion? We conclude that the observed high redshift galaxies most likely are excited energy states of old and inactive
   galaxies that turned into life through matter and momentum transfer from the fireball as well as by the collision of the two spacetimes:
   The local curved one embeds the galaxy with the expanding spacetime embedding the fireball.
    The present scenario may straightforwardly explain the origin of the monstrous BHs with $M_{BH}\geq 10^9 \MSun$ that
    are believed to be present already when our observable universe was $400$ Myr old.
   Hence QSOs with ever higher redshifts should exist, though their detection becomes increasingly harder.