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This thesis makes significant advances in the quantitative
understanding of two intrinsically linked yet technically very
different phenomena in quantum chromodynamics (QCD). Firstly, the
thesis investigates the soft probe of strong interaction
topological fluctuations in the quark-gluon plasma (QGP) which is
made possible via the anomalous chiral transport effects induced by
such fluctuations. Here, the author makes contributions towards
establishing the first comprehensive tool for quantitative
prediction of the chiral magnetic effect in the QGP that is
produced in heavy ion collision experiments. Secondly, the thesis
deals with the hard probe of strongly coupled QGP created in
heavy-ion collisions. In particular, this study addresses the basic
question related to the nonperturbative color structure in the QGP
via jet energy loss observables. The author further develops the
CUJET computational model for jet quenching and uses it to analyze
the topological degrees of freedom in quark-gluon plasma. The
contributions this thesis makes towards these highly-challenging
problems have already generated widespread impacts in the field of
quark-gluon plasma and high-energy nuclear collisions.
This thesis makes significant advances in the quantitative
understanding of two intrinsically linked yet technically very
different phenomena in quantum chromodynamics (QCD). Firstly, the
thesis investigates the soft probe of strong interaction
topological fluctuations in the quark-gluon plasma (QGP) which is
made possible via the anomalous chiral transport effects induced by
such fluctuations. Here, the author makes contributions towards
establishing the first comprehensive tool for quantitative
prediction of the chiral magnetic effect in the QGP that is
produced in heavy ion collision experiments. Secondly, the thesis
deals with the hard probe of strongly coupled QGP created in
heavy-ion collisions. In particular, this study addresses the basic
question related to the nonperturbative color structure in the QGP
via jet energy loss observables. The author further develops the
CUJET computational model for jet quenching and uses it to analyze
the topological degrees of freedom in quark-gluon plasma. The
contributions this thesis makes towards these highly-challenging
problems have already generated widespread impacts in the field of
quark-gluon plasma and high-energy nuclear collisions.
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