Technical Design Report for the PANDA Barrel DIRC Detector
@inproceedings{Collaboration2017TechnicalDR,
title={Technical Design Report for the PANDA Barrel DIRC Detector},
author={P̄ANDA Collaboration},
year={2017}
}This documents describes the technical design and the expected performance of the Barrel DIRC detector for the PANDA experiment. The Barrel DIRC will provide hadronic charged particle identification in the polar angle range of 22◦ to 140◦ for particle momenta between 0.5 GeV/c and 3.5 GeV/c. The design is based on the successful BaBar DIRC with several key improvements. The performance and system cost were optimized in detailed detector simulations and validated with full system prototypes…
Figures and Tables from this paper
figure 2.1 
figure 2.2 
figure 2.3 
figure 2.4 
figure 3.1 
table 3.1 
figure 3.2 
figure 3.3 
figure 3.4 
figure 3.5 
figure 3.6 
figure 3.7 
figure 3.8 
figure 4.1 
figure 4.10 
table 4.1 
figure 4.11 
figure 4.12 
figure 4.13 
figure 4.14 
figure 4.15 
figure 4.16 
figure 4.2 
table 4.2 
figure 4.3 
table 4.3 
figure 4.4 
figure 4.5 
figure 4.6 
figure 4.7 
figure 4.8 
figure 4.9 
figure 5.1 
table 5.1 
figure 5.10 
figure 5.11 
figure 5.12 
figure 5.13 
figure 5.14 
figure 5.15 
figure 5.16 
figure 5.17 
figure 5.18 
figure 5.19 
figure 5.2 
table 5.2 
figure 5.20 
figure 5.21 
figure 5.22 
figure 5.23 
figure 5.24 
figure 5.25 
figure 5.26 
figure 5.27 
figure 5.28 
figure 5.29 
figure 5.3 
table 5.3 
figure 5.30 
figure 5.31 
figure 5.32 
figure 5.33 
figure 5.34 
figure 5.35 
figure 5.36 
figure 5.37 
figure 5.38 
figure 5.39 
figure 5.4 
table 5.4 
figure 5.40 
figure 5.41 
figure 5.42 
figure 5.43 
figure 5.5 
table 5.5 
figure 5.6 
table 5.6 
figure 5.7 
table 5.7 
figure 5.8 
table 5.8 
figure 5.9 
table 5.9 
figure 6.1 
figure 6.10 
table 6.1 
figure 6.11 
figure 6.12 
figure 6.13 
figure 6.14 
figure 6.15 
figure 6.16 
figure 6.17 
figure 6.18 
figure 6.19 
figure 6.2 
figure 6.20 
figure 6.21 
figure 6.22 
figure 6.23 
figure 6.24 
figure 6.25 
figure 6.26 
figure 6.27 
figure 6.28 
figure 6.29 
figure 6.3 
figure 6.30 
figure 6.31 
figure 6.32 
figure 6.33 
figure 6.34 
figure 6.35 
figure 6.36 
figure 6.37 
figure 6.38 
figure 6.39 
figure 6.4 
figure 6.40 
figure 6.41 
figure 6.42 
figure 6.43 
figure 6.44 
figure 6.45 
figure 6.46 
figure 6.47 
figure 6.48 
figure 6.49 
figure 6.5 
figure 6.50 
figure 6.51 
figure 6.52 
figure 6.6 
figure 6.7 
figure 6.8 
figure 6.9 
table 7.1 
figure 7.1 
figure 7.10 
figure 7.11 
figure 7.12 
figure 7.13 
figure 7.14 
figure 7.15 
figure 7.16 
figure 7.17 
figure 7.2 
table 7.2 
figure 7.3 
figure 7.4 
figure 7.5 
figure 7.6 
figure 7.7 
figure 7.8 
figure 7.9 
figure 8.1
20 Citations
Particle identification algorithms for the PANDA Barrel DIRC
- PhysicsJournal of Instrumentation
- 2020
The PANDA experiment at the international accelerator Facility for Antiproton and Ion Research in Europe (FAIR) near GSI, Darmstadt, Germany will address fundamental questions of hadron physics.…
PANDA Barrel DIRC: From Design to Component Production
- PhysicsJournal of Physics: Conference Series
- 2022
Excellent particle identification (PID) will be essential for the PANDA experiment at FAIR. The Barrel DIRC will separate kaons and pions with at least 3 s.d. for momenta up to 3.5 GeV/c and polar…
Technical Design Report for the PANDA Endcap Disc DIRC
- Physics
- 2019
PANDA (anti-Proton ANnihiliation at DArmstadt) is planned to be one of the four main experiments at the future international accelerator complex FAIR (Facility for Antiproton and Ion Research) in…
The PANDA DIRCs
- PhysicsJournal of Instrumentation
- 2020
The PANDA experiment at the FAIR facility adresses open questions in hadron physics with antiproton beams in the momentum range of 1.5–15 GeV/c. The antiprotons are stored and cooled in a High Energy…
Status of the PANDA Barrel DIRC
- PhysicsJournal of Instrumentation
- 2020
The PANDA experiment will use cooled antiproton beams with high intensity stored in the High Energy Storage Ring at FAIR. Reactions on a fixed target producing charmed hadrons will shed light on the…
Developing high-performance DIRC detector for the future Electron Ion Collider experiment
- Physics
- 2020
The Electron-Ion Collider (EIC) will be the next frontier project of nuclear physics in the United States. It is planned to be built in the Brookhaven National Laboratory (BNL) in close collaboration…
Time imaging reconstruction for the PANDA Barrel DIRC
- PhysicsJournal of Instrumentation
- 2020
The innovative Barrel DIRC (Detection of Internally Reflected Cherenkov light) counter will provide hadronic particle identification (PID) in the central region of the PANDA experiment at the new…
The PANDA EDD prototype in Giessen Cosmic Station
- PhysicsJournal of Physics: Conference Series
- 2022
The PANDA detector at the future Facility for Antiproton and Ion Research (FAIR) is currently being constructed in Darmstadt, Germany. It contains a fixed proton target and an antiproton beam with a…
High-performance DIRC detector for the future Electron Ion Collider experiment
- PhysicsJournal of Instrumentation
- 2020
Excellent particle identification (PID) is an essential requirement for a future Electron-Ion Collider (EIC) detector. Identification of the hadrons in the final state is critical to study how…
References
SHOWING 1-10 OF 36 REFERENCES
RADIATION TESTING UPDATE, SEU MITIGATION, AND AVAILABILITY ANALYSIS OF THE VIRTEX FPGA FOR SPACE RECONFIGURABLE COMPUTING.
- Computer Science
- 2000
Evaluation of total ionizing dose, heavy ion and proton characterization and upset detection and mitigation schemes have been performed on Virtex FPGAs fabricated on epitaxial silicon to evaluate the on-orbit radiation performance expected for this technology.
Considerations Surrounding Single Event Effects in FPGAs, ASICs, and Processors
- Engineering
- 2011
Single event effects (SEEs) are of a growing concern in high-reliability system development, yet there is much disparity among users of ASICs and FPGAs with regard to understanding how susceptible…
Trapped Electrons in Irradiated Quartz and Silica: I, Optical Absorption
- Physics
- 1960
Evidence is given for the correlation between an optical absorption band at 2300 au and an electron spin reso nance system developed in quartz after Co/ sup 60/ gamma irradiation. The results of…
Synthesized Impurity Centers in Fused Silica
- Materials Science, Physics
- 1960
Fused silica has been prepared with controlled amounts (0.02 to 2.0%) of aluminum and lithium added. Absorption spectra and thermoluminescence reveal little difference between undoped specimens and…
Introduction To Geometrical Optics
- Physics
- 1994
Light Reflection at Plane Mirrors Refraction of Light Refraction by Planes, Plates and Prisms Paraxial Refraction at Planes, Plates and Prisms Refraction and Reflection at Spherical Surfaces Thin…
The PANDA Barrel DIRC Detector at FAIR
- Physics
- 2018
The PANDA experiment [1] is designed to address the fundamental aspects of QCD by performing hadron spectroscopy using high intensity cooled antiproton beams with momenta between 1.5 and 15 GeV/c and…
NEUTRON SPECIFIC COLOR CENTER IN FUSED SILICA AND AN IMPURITY BAND OF IDENTICAL WAVELENGTH
- Physics
- 1957
Private communications, Heraeus Quartzglas GmbH & Co. KG
- 2010