C. Vogel
University of Erlangen-Nuremberg
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Featured researches published by C. Vogel.
Journal of Instrumentation | 2013
A. Airapetian; E. C. Aschenauer; S Belostotski; A Borisenko; J. Bowles; I. Brodski; V. Bryzgalov; J. Burns; G. P. Capitani; V. Carassiti; G. Ciullo; A. Clarkson; M. Contalbrigo; R. De Leo; E. De Sanctis; M. Diefenthaler; P. Di Nezza; M. Düren; M. Ehrenfried; H. Guler; I. M. Gregor; M. Hartig; G.C. Hill; M. Hoek; Y. Holler; I. Hristova; H. S. Jo; R. Kaiser; T. Keri; A. Kisselev
The HERMES recoil detector is an exciting addition to the HERMES spectrometer, specifically designed to make one of the first exclusive measurements of deeply virtual Compton scattering (DVCS). DVCS is the experimentally cleanest way to access generalised parton distributions - a theoretical framework that describes the structure of the nucleon. The recoil detector utilises a silicon detector with a large dynamic range capable of reconstructing the momenta of protons in the range of 135 MeV/c to 450 MeV/c, placed directly into the HERA beam vacuum (around the HERMES target) to make both position and energy deposition measurements (for the purposes of momentum reconstruction) of the recoil protons from the process. In addition there is a scintillating fibre tracking (SET) detector placed directly outside the beam vacuum that provides both tracking information and momentum reconstruction data for protons at higher momenta. The third sub-detector is a photon detector that lies concentrically outside the SET and provides useful information on other processes for the purposes of background subtraction. Leptons involved in the interaction will be detected in the existing parts of the HERMES spectrometer. The recoil detectors silicon sub-detector was the subject of a presentation at the IEEE NSS in 2003 by Mathias Reinecke. This presentation is intended as an update on the successful development of the silicon sub-detector as well as providing more information on the impending installation of the detector into the HERMES spectrometer in November 2005
ieee nuclear science symposium | 2003
M. Reinecke; I. M. Gregor; A. Borissov; Kurt Hansen; Y. Holler; I. Hristova; R. Kaiser; M. Kopytin; B. Krauss; W. Lange; P. S. Lumsden; W.-D. Nowak; N. Pickert; V. Prahl; K. Rith; G. Rosner; D. Ryckbosch; C. Shearer; J. Stewart; F. Stinzing; A. Vandenbroucke; C. Vogel
A recoil detector will he installed surrounding the internal gas target of the HERMES experiment at DESY. The recoil detector will improve the selection of exclusive events by a direct measurement of the momentum and track direction of the recoiling particle. The innermost layer of this recoil detector is a new silicon strip detector (SSD). Since Monte Carlo simulations predict proton momenta as low as 100 MeV/c, the SSD will be placed inside the HERA vacuum. A new setup of the electronics enables a dynamic range from below 4 fC at a signal-to-noise ratio of 6.8 up to 270 fC. In this report, the assembly of the first module and the final setup within the HERMES experiment will be presented. Results from charge-injection tests of a prototype module are shown.
European Physical Journal C | 2015
A. Airapetian; N. Akopov; Z. Akopov; E. C. Aschenauer; W. Augustyniak; A. Avetissian; S. Belostotski; H.P. Blok; A. Borissov; V. Bryzgalov; G. P. Capitani; G. Ciullo; M. Contalbrigo; P. Dalpiaz; W. Deconinck; R. De Leo; E. De Sanctis; M. Diefenthaler; P. Di Nezza; M. Düren; G. Elbakian; F. Ellinghaus; L. Felawka; S. Frullani; D. Gabbert; G. Gapienko; V. Gapienko; V. Gharibyan; F. Giordano; S. Gliske
arXiv: High Energy Physics - Experiment | 2018
A. Airapetian; A. Borissov; C. Vogel; W. Augustyniak; L. Lagamba; P. Reimer; D. Ryckbosch; P. Di Nezza; E. De Sanctis; Y. Van Haarlem; S. Belostotski; S. G. Wang; V. Korotkov; S. Joosten; W. Lorenzon; Y. Salomatin; R. Kaiser; P.B. van der Nat; V. Kozlov; V. Muccifora; R. De Leo; V. Bryzgalov; B. Marianski; H. Marukyan; Irina Lehmann; Y. Miyachi; G. Nazaryan; P. Dalpiaz; J. J. M. Steijger; A. Rostomyan