High Q^2 QCD Physics at the Tevatron Hadron Collider Physics Symposium 2006, Duke University, Durham, NC, 5/22/2006.
Proposal for Level-2 Calorimeter Trigger Upgrade
A. Bhatti, M. Convery, M. Dell'Orso, G. Flanagan, H. Frisch, P. Giannetti, O. Gonzalez, M. Jones, T. Liu, D. Lucchesi, M. Piendibene, L. Ristori, L. Rogondino, V. Rusu, L. Sartori, S. Torre, V. Veszpremi, S.M. Wang,
CDF Note 8415
talk (ppt) (restricted)
Inclusive Double-Pomeron Exchange at the Fermilab Tevatron pbar-p Collider
D. Acosta et al., Phys. Rev. Lett. 93, 141601 (2004).
Central Pseudorapidity Gaps in Events with a Leading Antiproton at the Fermilab Tevatron pbar-p Collider
D. Acosta et al., Phys. Rev. Lett. 91, 011802 (2003).
Double Diffraction Dissociation at the Fermilab Tevatron Collider
T. Affolder et al., Phys. Rev. Lett. 87, 141802 (2001).
Double Diffraction Dissociation in pbar-p Collisions at the Fermilab Tevatron M. E. Convery for the CDF Collaboration, Pub. Proceedings of The Meeting of the Division of Particles and Fields (DPF 2000) of the American Physical Society, The Ohio State University, Columbus, OH, Aug. 9-12, 2000.
CDF Results on Hard Diffraction and Rapidity Gap Physics M.E. Convery for the CDF Collaboration, in QCD and Multiparticle Production, edited by I. Sarcevic and C.-I Tan (World Scientific, Singapore, 2000) pp. 275-282.
Events with a Rapidity Gap between Jets in pbar-p Collisions at sqrt(s)= 630 GeV
F. Abe et al., Phys. Rev. Lett. 81, 5278 (1998).
Energy Calibration of the MiniPlug Calorimeters (restricted) M. Convery, M. Gallinaro, K. Goulianos, A. Hamilton, C. Mesropian, K. Terashi, CDF Note 7913.
Diffractive Triggers (restricted) A. Bhatti, M. Convery, M. Gallinaro, K. Goulianos, K. Terashi, CDF Note 6121.
Commissioning the Beam Shower Counters (restricted) A. Bocci, M. Convery, M. Gallinaro, K. Goulianos, K. Terashi, CDF Note 5609.
Readout of the Roman Pot Fiber Tracker (restricted) M. Convery, C. Drennan, M. Gallinaro, J. Wu, CDF Note 5487.
Electronics for the Forward Detectors (restricted) A. Bhatti, M. Convery, M. Gallinaro, K. Goulianos, S. Lami, CDF Note 5248.
Information about Roman pot fiber readout and forward detector calibrations
Instructions for BSC/Miniplug electronics calibrations
Instructions for Roman-pot electronics calibrations
Shower-max electronics documentation
Instructions for Shower-max electronics calibrations
The MBR (Minimum Bias Rockefeller) Monte Carlo was
developed to generate minimum-bias
(soft) collisions with the properties observed in experiments at the ISR and
SPS colliders, with careful attention paid to elastic and diffractive
scattering. Elastic, single-diffractive (SD), double-diffractive (DD), as well as inelastic non-diffractive ``hard core'' (HC) events can be generated.
Phenomenological models are used to determine the total and differential cross
sections for these processes. The available mass in an event, which is the
center-of-mass energy in a HC event or the diffractive masses in SD or DD
events, is then ``decayed'' into particles. The charged and total multiplicity,
the pseudorapidity distribution, and the transverse momentum distribution are
also obtained from phenomenological relations determined from experimental data.