A combined SiPM-based TOF+RICH detector for future high-energy physics experiments

N. Nicassio, A. R. Altamura, C. Altomare, G. Robertis, D. Bari, A. D. Mauro, J. O. Guerra-Pulido, M. N. Mazziotta, E. Nappi, G. Paic, R. Pillera, G. Volpe
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引用次数: 2

Abstract

A novel compact particle identification (PID) detector concept based on Silicon Photomultipliers (SiPMs) optimized to perform combined Time-of-Flight (TOF) and Ring-Imaging Cherenkov (RICH) measurements using a common photosensitive sensor is under development. The system consists of a Cherenkov radiator layer separated from a photosensitive surface equipped with SiPMs by an expansion gap. A thin glass slab, acting as a second Cherenkov radiator, is coupled to the SiPMs to perform Cherenkov-based TOF measurements. We have built and tested a detector prototype including a 2 cm thick aerogel radiator and a 3 mm thick NaF slab. With a RICH resolution better than 1 mrad and a TOF resolution better than 50 ps, the present technology makes the proposed SiPM-based PID system particularly attractive for future high-energy physics experiments where space and cost constraints are critical. In this work, we discuss the principle of operation of the proposed TOF+RICH integration, with a particular focus on the optimization of the TOF radiator material, thickness and coupling with SiPMs, as well as the achievable angular and timing performance. Finally, preliminary beam test results for the considered detector prototype are presented.
用于未来高能物理实验的基于sipm的TOF+RICH探测器
一种基于硅光电倍增管(SiPMs)的新型紧凑型粒子识别(PID)探测器概念正在开发中,该探测器优化了使用普通光敏传感器进行飞行时间(TOF)和环成像切伦科夫(RICH)测量的组合。该系统由切伦科夫辐射层组成,通过膨胀间隙与配备sipm的光敏表面分离。一个薄玻璃板,作为第二个切伦科夫散热器,耦合到sipm执行基于切伦科夫的TOF测量。我们已经建立并测试了一个探测器原型,包括一个2厘米厚的气凝胶散热器和一个3毫米厚的NaF板。RICH分辨率优于1 mrad, TOF分辨率优于50 ps,目前的技术使所提出的基于sipm的PID系统对空间和成本限制至关重要的未来高能物理实验特别有吸引力。在这项工作中,我们讨论了所提出的TOF+RICH集成的工作原理,特别关注TOF散热器材料的优化,厚度和与sipm的耦合,以及可实现的角度和时序性能。最后给出了所考虑的探测器原型的初步光束测试结果。
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