Decoupling of the DGLAP evolution equations by Laplace method
arXiv:1509.06520 · doi:10.1140/epjp/i2015-15214-2
Abstract
In this paper, we derive two second- order of differential equation for the gluon and singlet distribution functions by using the Laplace transform method. We decoupled the solutions of the singlet and gluon distributions into the initial conditions (function and derivative of the function) at the virtuality separately as these solutions are defined by: \begin{eqnarray} F_{2}^{s}(x,Q^{2}) &=& \mathcal{F}(F_{s0}, \partial F_{s0})\nonumber &&\mathrm{and} \nonumber G(x,Q^{2}) &=& \mathcal{G}(G_{0}, \partial G_{0}).\nonumber \end{eqnarray} We compared our results with the MSTW parameterization and the experimental measurements of .
10 pages, 3 figures
References in corpus (3)
Cited by in corpus (10)
- Analytic derivation of the next-to-leading order proton structure function based on the Laplace transformation
- QCD analysis of nucleon structure functions in deep-inelastic neutrino-nucleon scattering: Laplace transform and Jacobi polynomials approach
- Analytical approaches to the determination of spin-dependent parton distribution functions at NNLO approximation
- Solution of QCDQED coupled DGLAP equations at NLO
- Nuclear longitudinal structure function in eA processes at the LHeC
- EMC effect in the next-to-leading order approximation based on the Laplace transformation
- Physical limits in the Color Dipole Model Bounds
- Analytic derivation of the non-linear gluon distribution function
- QCD analysis of non-singlet structure functions at NNLO accuracy, based on the Laplace transform
- A determination of the longitudinal structure function from the parametrization of based on the Laplace transformation