QCD analysis of $xF_3$ structure functions in deep-inelastic scattering: Mellin transform by Gegenbauer polynomial up to N$^3$LO approximation
Physical Review C 109, 055204 (2024) This paper provides a thorough examination of the $xF_3$ structure functions in deep-inelastic scattering through a comprehensive QCD analysis. Our approach harnesses sophisticated mathematical techniques, namely the Mellin transform combined with Gegenbauer poly...
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Zusammenfassung: | Physical Review C 109, 055204 (2024) This paper provides a thorough examination of the $xF_3$ structure functions
in deep-inelastic scattering through a comprehensive QCD analysis. Our approach
harnesses sophisticated mathematical techniques, namely the Mellin transform
combined with Gegenbauer polynomials. We have employed the Jacobi polynomials
approach for analysis, conducting investigations at three levels of precision:
Next-to-Leading Order (NLO), Next-to-Next-to-Leading Order (N$^2$LO), and
Next-Next-Next-to-Leading Order (N$^3$LO). We have performed a comparison of
our sets of valence-quark parton distribution functions with those of recent
research groups, specifically CT18 and MSHT20 at NLO and N$^2$LO, and MSTH23 at
N$^3$LO, which are concurrent with our current analysis. The combination of
Mellin transforms with Gegenbauer polynomials proves to be a powerful tool for
investigating the $xF_3$ structure functions in deep-inelastic scattering and
the results obtained from our analysis demonstrate a favorable alignment with
experimental data. |
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DOI: | 10.48550/arxiv.2404.17526 |