Creation of strange quark stars through strong interaction deconfinement is studied based on modern estimates of hyperon formation in neutron stars. The hyperon abundance is shown to be large enough so that if strange quark matter (SQM) is the true ground state of matter, the deconfinement density should be at most 2.5-3 times the nuclear saturation density. If so, deconfinement occurs in neutron stars at birth, and all neutron stars must be strange quark stars. Alternatively, sould observation indicate that some neutron stars have a baryonic interior, SQM is unlikely to be absolutely stable
The phase diagram of nuclear matter is extended to strangeness and antimatter. It offers fascinating...
A protoneutron star is formed immediately after the gravitational collapse of the core of a massive ...
This short review aims at giving a brief overview of various states of matter that have been suggest...
It is generally agreed on that the tremendous densities reached in the centers of neutron stars prov...
At greater than nuclear densities, matter may convert into a mixture of nucleons, hyperons, dibaryon...
We estimate the constraints of observational mass and redshift on the properties of equations of sta...
Under extreme conditions of temperature and/or density, quarks and gluons are expected to undergo a ...
We discuss the role of strangeness on the internal constitution and structural properties of neutron...
The existence of deconfined quark matter in the superdense interior of neutron stars is a key questi...
The measurement of the mass 1.97 ± 0.04 Msun for PSR J1614-2230 provides a new constraint on the equ...
Relativistic heavy ion collisions offer the possibility to produce exotic metastable states of nucle...
Recent progress in the understanding of the high density phase of neutron stars advances the view th...
Definitely, an affirmative answer to this question would have implications of fundamental importance...
We investigate the equations of state for pure neutron matter and strange hadronic matter in $\beta$...
The properties of strange quark matter and strange hadronic matter and their finite counterparts (st...
The phase diagram of nuclear matter is extended to strangeness and antimatter. It offers fascinating...
A protoneutron star is formed immediately after the gravitational collapse of the core of a massive ...
This short review aims at giving a brief overview of various states of matter that have been suggest...
It is generally agreed on that the tremendous densities reached in the centers of neutron stars prov...
At greater than nuclear densities, matter may convert into a mixture of nucleons, hyperons, dibaryon...
We estimate the constraints of observational mass and redshift on the properties of equations of sta...
Under extreme conditions of temperature and/or density, quarks and gluons are expected to undergo a ...
We discuss the role of strangeness on the internal constitution and structural properties of neutron...
The existence of deconfined quark matter in the superdense interior of neutron stars is a key questi...
The measurement of the mass 1.97 ± 0.04 Msun for PSR J1614-2230 provides a new constraint on the equ...
Relativistic heavy ion collisions offer the possibility to produce exotic metastable states of nucle...
Recent progress in the understanding of the high density phase of neutron stars advances the view th...
Definitely, an affirmative answer to this question would have implications of fundamental importance...
We investigate the equations of state for pure neutron matter and strange hadronic matter in $\beta$...
The properties of strange quark matter and strange hadronic matter and their finite counterparts (st...
The phase diagram of nuclear matter is extended to strangeness and antimatter. It offers fascinating...
A protoneutron star is formed immediately after the gravitational collapse of the core of a massive ...
This short review aims at giving a brief overview of various states of matter that have been suggest...