Abstract. A statistical quark model, with quark energy levels given by a central linear confining potential is used to obtain the light sea-quark asymmetry, d/u, and also for the ratio d/u, inside the nucleon. After adjusting a temperature parameter by the Gottfried sum rule violation, and chemical potentials by the valence up and down quark normalizations, the results are compared with experimental data available
By considering a statistical model for the quark content of the nucleon, where the quark levels are ...
A physical model for parton densities in hadrons, based on Gaussian momentum fluctuations of partons...
A simple statistical model in terms of light-front kinematic variables is used to explain the nuclea...
A statistical quark model, with quark energy levels given by a central linear confining potential is...
An improved statistical quark model, with quark energy levels given by a central linear confining po...
Within a statistical model of linear confined quarks we obtain the flavor asymmetry and correspondin...
The light anti-quark and quark distribution in the proton, as well as the neutron to proton ratio of...
The neutron-to-proton ratio of the structure functions, F(2)(n)/F(2)(p), as well as the correspondin...
The strangeness content of the nucleon is determined from a statistical model using confined quark l...
During the eights and nineties many statistical/thermodynamical models were proposed to describe the...
Using global fits of valence u and d quark parton distributions and data on quark and nucleon form f...
AbstractTaking proton as an ensemble of quark–gluon Fock states and using the principle of detailed ...
Taking proton as an ensemble of quark-gluon Fock states and using the principle of detailed balance,...
Recent deep inelastic data leads to an up-down quark asymmetry of the nucleon sea. Explanations of t...
In this paper, in the scope of a non-extensive statistical model for the nucleon’s structure functio...
By considering a statistical model for the quark content of the nucleon, where the quark levels are ...
A physical model for parton densities in hadrons, based on Gaussian momentum fluctuations of partons...
A simple statistical model in terms of light-front kinematic variables is used to explain the nuclea...
A statistical quark model, with quark energy levels given by a central linear confining potential is...
An improved statistical quark model, with quark energy levels given by a central linear confining po...
Within a statistical model of linear confined quarks we obtain the flavor asymmetry and correspondin...
The light anti-quark and quark distribution in the proton, as well as the neutron to proton ratio of...
The neutron-to-proton ratio of the structure functions, F(2)(n)/F(2)(p), as well as the correspondin...
The strangeness content of the nucleon is determined from a statistical model using confined quark l...
During the eights and nineties many statistical/thermodynamical models were proposed to describe the...
Using global fits of valence u and d quark parton distributions and data on quark and nucleon form f...
AbstractTaking proton as an ensemble of quark–gluon Fock states and using the principle of detailed ...
Taking proton as an ensemble of quark-gluon Fock states and using the principle of detailed balance,...
Recent deep inelastic data leads to an up-down quark asymmetry of the nucleon sea. Explanations of t...
In this paper, in the scope of a non-extensive statistical model for the nucleon’s structure functio...
By considering a statistical model for the quark content of the nucleon, where the quark levels are ...
A physical model for parton densities in hadrons, based on Gaussian momentum fluctuations of partons...
A simple statistical model in terms of light-front kinematic variables is used to explain the nuclea...
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