A proposal to avoid the ambiguity in the identification of the scale energy parameter $\tilde{Q}^{2}$ of the PDFs in the $Z$-production in $eP$-dis
M. G\'omez-Bock, W. Gonzalez, L. L\'opez-Lozano, A. Rosado

TL;DR
This paper examines the ambiguity in choosing the scale parameter for $Z$-production in deep inelastic $eP$ scattering, showing that different prescriptions significantly affect cross section predictions, and proposes a modification to the Parton Model to resolve this issue.
Contribution
It introduces a practical prescription within the Parton Model to eliminate the ambiguity in the scale parameter for $Z$-production in deep inelastic scattering.
Findings
Cross section varies by up to 25% with different prescriptions.
Differences in predictions lead to about 10,000 $Z$ bosons at LHeC energies.
Proposes a modified Parton Model for unambiguous calculations.
Abstract
We discuss -production in the deep inelastic process in the context of the Standard Model using the Parton Model. In contrast to the deep inelastic -scattering (), where the choice of is unambiguous, in this case is not clear since the momentum transfer square, at the quark level, depends on the reaction mechanism. Our aim in this work is to show that the total cross section depends strongly on the prescription used for the scale parameter and on a different option that we have taken for making the convolution of the parton distribution functions and the amplitude of the quark processes. We present results for the total cross section as a function of the total energy of the system , in the range GeV. We find differences of up to 25\% in the rates of the total…
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Taxonomy
TopicsParticle physics theoretical and experimental studies · Quantum Chromodynamics and Particle Interactions · High-Energy Particle Collisions Research
