Manifestations of minimum-bias dijets in high-energy nuclear collisions
Thomas A. Trainor

TL;DR
This paper investigates how minimum-bias dijets contribute to high-energy nuclear collision data, challenging the dominant flow-QGP interpretation by comparing different analysis methods and emphasizing the significance of jet manifestations.
Contribution
It introduces an alternative two-component model and compares analysis methods, highlighting the importance of MB dijets over flow-based explanations in interpreting collision data.
Findings
MB dijets account for features attributed to flow phenomena
Type B methods retain more information from primary data
MB jet contributions challenge the flow-QGP narrative
Abstract
Dijets observed near midrapidity in high-energy nuclear collisions result from large-angle scattering of low- partons (gluons) within projectile hadrons as a signature manifestation of QCD. Within the same collisions it has been claimed that hydrodynamic flows (radial, elliptic and "higher harmonic" flows) carried by a dense QCD medium or quark-gluon plasma (QGP) dominate the observed hadronic final state. The flow-QGP narrative is imposed {\em a priori} on primary particle data, and of all possible analysis methods a subset A that seems to support that narrative is preferred. The present study explores an alternative minimum-bias (MB) jet narrative -- quantitative correspondence of MB dijet manifestations in the hadronic final state with measured {\em isolated jet} properties. The latter incorporates a different set of methods B that emerge from inductive study of primary particle…
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Taxonomy
TopicsHigh-Energy Particle Collisions Research · Particle physics theoretical and experimental studies · Quantum Chromodynamics and Particle Interactions
