Performance of a triple-GEM detector with capacitive-sharing 3-coordinate (X-Y-U)-strip anode readout

Kondo GnanvoThomas Jefferson National Accelerator Facility, Newport News, VA, USA, Andrew WeisenbergerThomas Jefferson National Accelerator Facility, Newport News, VA, USA, Seung JoonThomas Jefferson National Accelerator Facility, Newport News, VA, USA, LeeCERN, Geneva, Rui de OliveiraCERN, Geneva, Bertrand MehlCERN, Geneva
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Abstract

The concept of capacitive-sharing readout, described in detail in a previous study, offers the possibility for the development of high-performance three-coordinates (X-Y-U)-strip readout for Micro Pattern Gaseous Detectors (MPGDs) using simple standard PCB fabrication techniques. Capacitive-sharing (X-Y-U)-strip readout allows simultaneous measurement of the Cartesian coordinates x and y of the position of the particles together with a third coordinate u along the diagonal axis in a single readout PCB. This provides a powerful tool to address multiple-hit ambiguity and enable pattern recognition capabilities in moderate particle flux environment of collider or fixed target experiments in high energy physics HEP) and nuclear physics (NP). We present in this paper the performance of a 10 cm {\times} 10 cm triple-GEM detector with capacitive-sharing (X-Y-U)-strip anode readout. Spatial resolutions of the order of {\sigma}^res_x = 71.6 {\pm} 0.8 {\mu}m for X-strips, {\sigma}^res_y = 56.2 {\pm} 0.9 {\mu}m for Y-strips and {\sigma}^res_u = 75.2 {\pm} 0.9 {\mu}m for U-strips have been obtained at a beam test at Thomas Jefferson National Accelerator Facility (Jefferson Lab). Modifications of the readout design of future prototypes to improve the spatial resolution and challenges in scaling to large-area MPGDs are discussed.
带有电容共享三坐标(X-Y-U)带状阳极读数的三GEM探测器的性能
电容共享读出的概念在之前的一项研究中已有详细描述,它为利用简单的标准印刷电路板制造技术开发用于微图案气态探测器(MPGD)的高性能三坐标(X-Y-U)带状读出提供了可能。电容共享(X-Y-U)-带状读出允许在单个读出 PCB 中同时测量粒子位置的直角坐标 x 和 y 以及沿对角轴的第三个坐标 u。这为解决多击模糊性问题提供了强有力的工具,并使高能物理(HEP)和核物理(NP)中对撞机或固定靶实验的中等粒子流环境具备了模式识别能力。我们在本文中介绍了采用电容共享(X-Y-U)带状阳极读出的 10 厘米{\times}三GEM 探测器的性能。在托马斯-杰斐逊国家加速器设施(杰斐逊实验室)进行的束流测试中,X-条带的空间分辨率为{\sigma}^res_x = 71.6 {\pm} 0.8 {\mu}m ,Y-条带的空间分辨率为{\sigma}^res_y = 56.2 {\pm} 0.9 {\mu}m ,U-条带的空间分辨率为{\sigma}^res_u = 75.2 {\pm} 0.9 {\mu}m 。讨论了为提高空间分辨率而对未来原型的读出设计进行的修改,以及扩展到大面积 MPGD 所面临的挑战。
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