Single Inclusive Jet Production in $pA$ Collisions at NLO in the small-$x$ regime
Hao-yu Liu, Kexin Xie, Zhongbo Kang, Xiaohui Liu

TL;DR
This paper provides the first complete NLO prediction for single inclusive jet production in pA collisions within the CGC framework, including full jet algorithm implementation and differential cross sections.
Contribution
It introduces a fully differential NLO calculation with jet clustering in the CGC effective theory, including novel soft contributions and an analytic small-R limit cross section.
Findings
Validated the CGC factorization for jet production.
Derived an analytic cross section in the small-R limit.
Observed the negativity of the cross section at large jet transverse momentum.
Abstract
We present the first complete NLO prediction with full jet algorithm implementation for the single inclusive jet production in collisions within the CGC effective theory. Our prediction is fully differential over the final state physical kinematics, which allows the implementation of any IR safe observable including the jet clustering procedure. The NLO calculation is organized with the aid of the power counting proposed in [1] which gives rise to the novel soft contributions in the CGC factorization. We achieve the fully-differential calculation by constructing suitable subtraction terms to handle the singularities in the real corrections. The subtraction contributions can be exactly integrated analytically. We present the NLO cross section with the jets constructed using the anti- algorithm. The NLO calculation demonstrates explicitly the validity of the CGC factorization in…
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Taxonomy
TopicsParticle physics theoretical and experimental studies · High-Energy Particle Collisions Research · Quantum Chromodynamics and Particle Interactions
