Saturation and geometric scaling in DIS at small x
arXiv:hep-ph/0109010 · doi:10.1088/0954-3899/28/5/326
Abstract
We present various aspects of the saturation model which provides good description of inclusive and diffractive DIS at small x. The model uses parton saturation ideas to take into account unitarity requirements. A new scaling predicted by the model in the small x domain is successfully confronted with the data.
Presented at New Trends in HERA Physics 2001, Ringberg Castle, Tegernsee, Germany, 17-22 June 2001, minor corrections, some references added
References in corpus (8)
- Deep-Inelastic Inclusive ep Scattering at Low x and a Determination of alpha_s
- Measurement of the neutral current cross section and F2 structure function for deep inelastic e+p scattering at HERA
- Saturation and Universality in QCD at small x
- Effective field theory for the small-x evolution
- New Scaling at High Energy DIS
- Diffractive parton distributions from the saturation model
- Nonlinear evolution and saturation for heavy nuclei in DIS
- Scaling phenomena from non-linear evolution in high energy DIS
Cited by in corpus (16)
- A Modification of the Saturation Model: DGLAP evolution
- Study of deep inelastic inclusive and diffractive scattering with the ZEUS forward plug calorimeter
- The unintegrated gluon distribution from the GBW and BGK models
- The ratio of the beauty structure functions at low x
- Geometrical scaling in charm structure function ratios
- The behavior of the heavy-quarks structure functions at small-
- Dynamical behavior connection of the gluon distribution and the proton structure function at small
- Beyond DGLAP improved saturation model
- Color dipole cross section in the DGLAP improved saturation model
- The improved saturation model in nuclei
- Physical limits in the Color Dipole Model Bounds
- Diffractive scattering
- Critical Correlations of Wilson Lines in SU(3) and the High Energy Cross Section
- Elastic meson production and Compton scattering
- Evolution of the color dipole cross section
- Color dipole cross-section from unifying the color dipole picture and improved saturation models