Evolution of full jets in QGP medium

Relativistic heavy ion collisions at RHIC/BNL and LHC/CERN have established the formation of a extremely hot and dense Quark-Gluon Plasma (QGP). Jets produced form hard nucleon-nucleon collisions serve as an important tool to infer the thermal and transport properties of the expanding QGP. The present study aims to explore jet quenching and reconstruction of full jets within a jet cone by developing a coupled (2+1)D relativistic viscous hydrodynamic code to treat the baseline hydrodynamic medium evolution that combines with Boltzmann parton transport for jet shower evolution. The local temperature and the flow velocity from the hydrodynamic medium determine the longitudinal energy loss ê and the transverse momentum broadening q for the jet shower evolution. In turn, the local energy-momentum deposited by the jet during evolution in the QGP provides a source term for the hydrodynamic evolution equation. We have developed a coupled relativistic jet shower transport and viscous hydrodynamic description of the jet-induced medium excitation/response. The main goal is to reconstruct the full-jet to study the medium modification of the energy-momentum distribution of light and heavy flavor jets and the jet quenching. This model can also be used to simultaneously characterise the energy density fluctuations present in the medium, as well as generate short wavelength fluctuations that affects higher flow coefficients