Davison Eugene Soper

Publications (7)0 Total impact

• Source

  Available from: Giuseppe Battistoni

  Article: QCD

  S Catani, Michael Dittmar, Davison Eugene Soper, William James Stirling, Stefan Tapprogge, S. I. Alekhin, Patrick Aurenche, C Balázs, R. D. Ball, G Battistoni, [......], A. V. Sidorov, H Stenzel, D. R. Stump, R. S. Thorne, D. Treleani, W. K. Tung, A Vogt, Bryan R Webber, M Werlen, S. Zmouchko
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  ABSTRACT: We discuss issues of QCD at the LHC including parton distributions, Monte Carlo event generators, the available next-to-leading order calculations, resummation, photon production, small x physics, double parton scattering, and backgrounds to Higgs production.
• Article: Tests of a composite model of quarks and leptons

  Jonathan L Rosner, Davison Eugene Soper
• Source

  Available from: cern.ch

  Article: Hard hadronic collisions: extrapolation of standard effects

  A Ali, Patrick Aurenche, R. Baier, E Berger, A. Douiri, M. Fontannaz, Benedikt Humpert, G Ingelman, Ritva Kinnunen, E Pietarinen, R. Rückl, D. Schiff, Davison Eugene Soper, William James Stirling, B van Eijk
• Source

  Available from: imamu.edu.sa

  Article: New jet cluster algorithms: next-to-leading order QCD and hadronization corrections

  Siegfried Bethke, Zoltán Kunszt, Davison Eugene Soper, William James Stirling
• Source

  Available from: cern.ch

  Article: Comparison of Monte Carlo and analytical calculations in QCD

  G Ingelman, Davison Eugene Soper
• Source

  Available from: cern.ch

  Article: Heavy flavour contributions to massive lepton pair production

  E. L. Berger, Davison Eugene Soper
• Source

  Available from: cern.ch

  Article: Semi-inclusive deeply inelastic scattering at electron-proton colliders

  R Meng, F I Olness, Davison Eugene Soper
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  ABSTRACT: Measurement of the distribution of hadronic energy in the final state in deeply inelastic electron scattering at HERA can provide a good test of our understanding of perturbative QCD. For this purpose, we define an energy distribution function, which can be computed in terms of parton distribution functions for the incoming hadron without involving parton decay functions for the outgoing partons. We expand the energy distribution in terms of functions of certain angles times scalar functions that describe the hadronic structure. Finally, we compute these hadronic structure functions (away from the direction corresponding to zerotransverse momentum) at order αs. The gluon-initiated contribution can yield as much as 50% of the total; therefore, this process can play a significant role in determining the gluon distribution.