Title :
Toward a scintillator based digital hadron calorimeter for the linear collider detector
Author :
Dyshkant, A. ; Beznosko, D. ; Blazey, G. ; Chakraborty, D. ; Francis, K. ; Kubik, D. ; Lima, J.G. ; Martin, M.I. ; McCormick, J. ; Rykalin, V. ; Zutshi, V.
Author_Institution :
Northern Illinois Univ., DeKalb, IL, USA
Abstract :
We report on the feasibility of a scintillator-based (semi) digital hadron calorimeter for the proposed linear collider detector (LCD). A finely segmented, (semi) digital hadron calorimeter, combined with energy flow algorithms, represents one of the most promising approaches to attaining the unprecedented jet energy resolutions required to fully exploit the physics potential of a future linear collider. At the Northern Illinois Center of Accelerator and Detector Development at Northern Illinois University we have made a number of initial studies of a scintillator-based (semi) digital tile calorimeter. These studies include determination of optimum cell size, comparison of light yield of cast and extruded scintillator cells, optimization of cell processing and performance of candidate photodetectors. Initial results are encouraging and indicate that a scintillator-based (semi) digital hadron calorimeter for the LCD merits continued study.
Keywords :
digital instrumentation; high energy physics instrumentation computing; linear colliders; nuclear electronics; optical fibres; particle calorimetry; photodetectors; scintillation counters; Accelerator and Detector Development; Northern Illinois Center; Northern Illinois University; candidate photodetectors; cast scintillator cells; cell processing optimization; digital Calorimetry; digital tile calorimeter; energy flow algorithms; extruded scintillator cells; feasibility; finely segmented digital hadron calorimeter; future linear collider; linear collider detector; optical fibers; optimum cell size; scintillator based digital hadron calorimeter; semidigital hadron calorimeter; unprecedented jet energy resolutions; Calorimetry; Detectors; Dynamic range; Electromagnetic radiation; Energy measurement; Energy resolution; Optical fibers; Photodetectors; Physics;
Journal_Title :
Nuclear Science, IEEE Transactions on
DOI :
10.1109/TNS.2004.832644