Jet quenching in expanding medium
S P Adhya, Carlos Albert Salgado, Martin Spousta, Konrad Tywoniuk
Abstract
Open-access reader
S P Adhya, Carlos Albert Salgado, Martin Spousta, Konrad Tywoniuk
Abstract
Open-access reader
Abstract Comprehensive understanding of medium-induced radiative energy loss is of a paramount importance in describing observed jet quenching in heavy-ion collisions. In this work, we have calculated the medium-modified gluon splitting rates for different profiles of the expanding partonic medium, namely profiles for static, exponential, and Bjorken expanding medium. Here in this study, we have used the Baier-Dokshitzer-Mueller-Peigne-Schiff-Zakharov (BDMPSZ) formalism is used for multiple soft scatterings with a time-dependent transport coefficient for characterizing the expanding medium. Using the kinetic rate equation, we have numerically evaluated the distribution of the medium evolved gluon spectra for different medium profiles. We have presented a calculation of the jet Q AA which quantifies a sensitivity of the inclusive jet suppression on the way how the medium expands. Comparisons of predicted jet Q AA with experimental data from the LHC are also presented.
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Abstract Comprehensive understanding of medium-induced radiative energy loss is of a paramount importance in describing observed jet quenching in heavy-ion collisions. In this work, we have calculated the medium-modified gluon splitting rates for different profiles of the expanding partonic medium, namely profiles for static, exponential, and Bjorken expanding medium. Here in this study, we have used the Baier-Dokshitzer-Mueller-Peigne-Schiff-Zakharov (BDMPSZ) formalism is used for multiple soft scatterings with a time-dependent transport coefficient for characterizing the expanding medium. Using the kinetic rate equation, we have numerically evaluated the distribution of the medium evolved gluon spectra for different medium profiles. We have presented a calculation of the jet Q AA which quantifies a sensitivity of the inclusive jet suppression on the way how the medium expands. Comparisons of predicted jet Q AA with experimental data from the LHC are also presented.
Key concepts: Jet quenching, Physics, Radiative transfer, Gluon, Formalism (music), Kinetic energy, Spectral line, Exponential function