Dynamical evolution of the Universe in the quark-hadron phase transition and possible nugget formation
arXiv:hep-ph/9903466 · doi:10.1103/PhysRevD.62.063505
Abstract
We study the dynamics of first-order phase transition in the early Universe when it was old with quarks and gluons condensing into hadrons. We look at how the Universe evolved through the phase transition in small as well as large super cooling scenario, specifically exploring the formation of quark nuggets and their possible survival. The nucleation of the hadron phase introduces new distance scales in the Universe, which we estimate along with the hadron fraction, temperature, nucleation time etc. It is of interest to explore whether there is a relic signature of this transition in the form of quark nuggets which might be identified with the recently observed dark objects in our galactic halo and account for the Dark Matter in the Universe at present.
LaTeX file with four postscript figures
References in corpus (2)
Cited by in corpus (15)
- Electroweak Baryogenesis and New TeV Fermions
- Dark matter and dark energy from quark bag model
- Supercooling and phase coexistence in cosmological phase transitions
- Coalescence of Strange-Quark Planets with Strange Stars: a New Kind of Sources for Gravitational Wave Bursts
- First-order cosmological phase transitions in the radiation dominated era
- Close-in Exoplanets as Candidates of Strange Quark Matter Objects
- Scalar perturbations in cosmological models with quark nuggets
- High-redshift microlensing and the spatial distribution of dark matter in the form of MACHOs
- Observational constraints on the unified dark matter and dark energy model based on the quark bag model
- A relativistic compact stellar model of anisotropic quark matter mixed with dark energy
- QCD Cosmology from the Lattice Equation of State
- Orbital Properties and Gravitational Wave Signatures of Strange Crystal Planets
- An analytical model of surface mass densities of cold dark matter haloes - with an application to MACHO microlensing optical depths
- Common Approaches in Description of Ordinary Liquids and Hadronic Matter
- Effects of curvature and interactions on the dynamics of the deconfinement phase transition