大面积微图样气体探测器的构建

P. Bernhard, A. Brogna, S. Caiazza, A. Düdder, P. Gülker, C. Kahra, T. Lin, M. Schott, Q. Weitzel, E. Yildirim
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引用次数: 2

摘要

粒子物理实验通常包括跟踪探测器,其面积可达几平方米。如果需要100μm的空间分辨率和高速率能力,微模式气体探测器(MPGD)是一种经济高效的解决方案。然而,大面积mpgd的建造具有挑战性,因为必须满足严格的制造公差,以保证稳定和均匀的性能。因此,在美因茨的PRISMA探测器实验室中,一个精密的花岗岩工作台和一个带有附加激光传感器的自动3-D定位系统都安装在层流细胞内。目前,该基础设施用于生产漂移板,用于升级欧洲核子研究中心的ATLAS μ子光谱仪,该光谱仪带有微孔气体结构(Micromegas)探测器。为了使生产工序并行化,设计并制作了表面平面度约为20μm(均方根)的可移动真空工作台板。我们给出了漂移板原型所达到精度的初步结果。这些结果对未来大面积mpgd的建设尤其重要,例如未来美因茨MESA加速器实验用的气体电子倍增器(GEM)探测器。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Construction of large-area micro-pattern gaseous detectors
Particle physics experiments often comprise tracking detectors with areas of up to a few square meters. If a spatial resolution of the order of 100μm and high-rate capability are required, Micro Pattern Gaseous Detectors (MPGD) are a cost-effective solution. However, the construction of large-area MPGDs is challenging, since tight fabrication tolerances have to be met to guarantee a stable and homogeneous performance. A precision granite table and an automated 3-D positioning system with an attached laser sensor, both inside a laminar-flow cell, have therefore been set up in the PRISMA Detector Lab at Mainz. Currently, this infrastructure is used to produce drift panels for the upgrade of the ATLAS muon spectrometer at CERN with Micro Mesh Gaseous Structure (Micromegas) detectors. In order to parallelize production steps, movable vacuum table boards with a surface planarity of about 20μm (root mean square) have been designed and built. We present preliminary results on the achieved precision of drift panel prototypes. These results are in particular relevant for future construction of large-area MPGDs, such as the Gas Electron Multiplier (GEM) detectors for experiments at the future MESA accelerator at Mainz.
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