We explore the relevance of confinement in quark matter models for the possible quark core of neutron stars. For the quark phase, we adopt the equation of state (EoS) derived with the Field Correlator Method, extended to the zero temperature limit. For the hadronic phase, we use the microscopic Brueckner-Hartree-Fock many-body theory. We find that the currently adopted value of the gluon condensate $G_2 \simeq 0.006-0.007 \rm {GeV^4}$, which gives a critical temperature $T_c \simeq 170 \rm MeV$, produces maximum masses which are only marginally consistent with the observational limit, while larger masses are possible if the gluon condensate is increased
The underlying theme of this thesis is an investigation of the equation of state of strongly interac...
This thesis discusses the properties of cold quark matter as exists in the core of massive neutron s...
We study the hadron-quark phase transition in the interior of neutron stars (NS). For the hadronic s...
We study the structure of hybrid stars with the Field Correlator Method, extended to the zero temper...
We discuss the appearance of quark matter in neutron star cores', focussing on the possibility that ...
A phase of strong interacting matter with deconfined quarks is expected in the core of massive neutr...
The quark matter equation of state (EOS) derived from the standard Nambu - Jona-Lasinio (NJL) model ...
A new scheme for testing the nuclear matter (NM) equation of state (EoS) at high densities using con...
The quark gluon plasma (QGP) at zero temperature and high baryon number is a system that may be pres...
In this proceedings contribution, we discuss recent developments in the perturbative determination o...
Massive neutron stars (NS) are expected to possess a quark core. While the hadronic side of the NS e...
We explore the structure of hybrid stars based on a quark matter equation of state (EoS) built with ...
We study the quark deconfinement phase transition in cold (T = 0) neutron star matter and we calcula...
The theory governing the strong nuclear force—quantum chromodynamics—predicts that at sufficiently h...
Whether or not the deconfined quark phase exists in neutron star cores is an open question. We use t...
The underlying theme of this thesis is an investigation of the equation of state of strongly interac...
This thesis discusses the properties of cold quark matter as exists in the core of massive neutron s...
We study the hadron-quark phase transition in the interior of neutron stars (NS). For the hadronic s...
We study the structure of hybrid stars with the Field Correlator Method, extended to the zero temper...
We discuss the appearance of quark matter in neutron star cores', focussing on the possibility that ...
A phase of strong interacting matter with deconfined quarks is expected in the core of massive neutr...
The quark matter equation of state (EOS) derived from the standard Nambu - Jona-Lasinio (NJL) model ...
A new scheme for testing the nuclear matter (NM) equation of state (EoS) at high densities using con...
The quark gluon plasma (QGP) at zero temperature and high baryon number is a system that may be pres...
In this proceedings contribution, we discuss recent developments in the perturbative determination o...
Massive neutron stars (NS) are expected to possess a quark core. While the hadronic side of the NS e...
We explore the structure of hybrid stars based on a quark matter equation of state (EoS) built with ...
We study the quark deconfinement phase transition in cold (T = 0) neutron star matter and we calcula...
The theory governing the strong nuclear force—quantum chromodynamics—predicts that at sufficiently h...
Whether or not the deconfined quark phase exists in neutron star cores is an open question. We use t...
The underlying theme of this thesis is an investigation of the equation of state of strongly interac...
This thesis discusses the properties of cold quark matter as exists in the core of massive neutron s...
We study the hadron-quark phase transition in the interior of neutron stars (NS). For the hadronic s...