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Title Gradient Tomography of Jet Quenching in Heavy-ion Collisions
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Author(s) Wang, Xin-Nian (speaker) (CCNU/LBNL)
Corporate author(s) CERN. Geneva
Imprint 2020-06-04. - 1245.
Series (Conferences)
(10th International Conference on Hard and Electromagnetic Probes of High-Energy Nuclear Collisions)
Lecture note on 2020-06-04T12:30:00
Subject category Conferences
Abstract Transverse momentum broadening and energy loss of a propagating parton are dictated by the space-time profile of the jet transport coefficient $\hat q$ in dense QCD medium. Spatial gradient of $\hat q$ perpendicular to the propagation direction can lead to a drift and asymmetry in parton transverse momentum distribution. Such an asymmetry depends on both the spatial position along the transverse gradient and path length of a propagating parton as shown by numerical solutions of the Boltzmann transport in the simplified form of a drift-diffusion equation. In high-energy heavy-ion collisions, this asymmetry with respect to a plane defined by the beam and trigger particle (photon, hadron or jet) with a given orientation relative to the event plane is shown to be closely related to the transverse position of the initial jet production in full event-by-event simulations within the linear Boltzmann transport model. Such a gradient tomography can be used to localize the initial jet production position for more detailed study of jet quenching and properties of the quark-gluon plasma along a given propagation path in heavy-ion collisions.
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 ჩანაწერი შექმნილია 2020-06-25, ბოლოს შესწორებულია 2024-06-26


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