Bottomonium suppression in nucleus-nucleus collisions using effective fugacity quasi-particle model

TL;DR

This paper investigates bottomonium suppression in heavy-ion collisions by modeling the quark-gluon plasma with an effective fugacity quasi-particle approach, comparing theoretical predictions with experimental data.

Contribution

It introduces a novel correction to the Cornell potential using an effective fugacity quasi-particle model to study bottomonium dissociation and suppression in QGP.

Findings

Calculated dissociation temperatures for bottomonium states.

Predicted suppression patterns consistent with experimental data.

Enhanced understanding of QGP properties affecting bottomonium survival.

Abstract

In the present article, we have studied the equation of state and dissociation temperature of bottomonium state by correcting the full Cornell potential in isotropic medium by employing the effective fugacity quasi-particle Debye mass. We had also calculated the bottomonium suppression in an expanding, dissipative strongly interacting QGP medium produced in relativistic heavy-ion collisions. Finally we compared our results with experimental data from RHIC 200GeV/nucleon Au-Au collisions, LHC 2.76 TeV/nucleon Pb-Pb, and LHC 5.02 TeV/nucleon Pb-Pb collisions as a function of number of participants