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Implications of the Principle of Maximum Conformality for the QCD Strong Coupling

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arxiv 1705.02384 v1 pith:5VU234NY submitted 2017-05-05 hep-ph

classification hep-ph
keywords choicepredictionsapplicabilityconformalityconventionalcouplinggtrsimmaximum
verification ladder T0 review T1 audit T2 compute T3 formal
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The Principle of Maximum Conformality (PMC) provides scale-fixed perturbative QCD predictions which are independent of the choice of the renormalization scheme, as well as the choice of the initial renormalization scale. In this article, we will test the PMC by comparing its predictions for the strong coupling \alpha^s_{g_1}(Q), defined from the Bjorken sum rule, with predictions using conventional pQCD scale-setting. The two results are found to be compatible with each other and with the available experimental data. However, the PMC provides a significantly more precise determination, although its domain of applicability (Q \gtrsim 1.5 GeV) does not extend to as small values of momentum transfer as that of a conventional pQCD analysis (Q \gtrsim 1 GeV). We suggest that the PMC range of applicability could be improved by a modified intermediate scheme choice or using a single effective PMC scale.

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  1. What are the consequences of independent factorization and renormalization scales?

    hep-ph 2026-08 conditional novelty 6.0 of 10

    Independent factorization and renormalization scales are inconsistent with simultaneously preserving RG invariance, Ward identities, and PDF sum rules in generalized pole subtraction schemes.

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