Pixel Chamber: A solid-state active-target for 3D imaging of charm and beauty

A. Mulliri, M. Arba, P. Bhattacharya, G. Bruno, E. Casula, C. Cicalò, F. Colamaria, F. Fionda, A. De Falco, M. Mager, D. Marras, A. Masoni, L. Musa, S. Siddhanta, M. Tuveri, G. Usai
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Abstract

The Pixel Chamber project purpose is the production of the first solid state active target capable of performing continuous, high-resolution (O( μ m)) 3D tracking. The aim is to create a bubble chamber-like high-granularity stack of hundreds of very thin monolithic active pixel sensors (MAPS) glued together. In this paper, the R&D to develop the first prototypes with ALPIDE sensors, designed for the ALICE experiment at the CERN LHC, will be presented. Tracking and vertexing algorithms were developed to reconstruct tracks and vertices inside Pixel Chamber. They were tested on Monte Carlo simulations which show that it is possible to obtain a high efficiency for the reconstruction of hadronic tracks, and for the primary and secondary vertices inside the detector. The tracking algorithm has been tested on test beam data to reconstruct long tracks produced in a single ALPIDE sensor parallel to a beam. Results show that it is possible to obtain very good performances in long track reconstruction on a single ALPIDE. Among the possible applications, Pixel Chamber used as an active target, has the potential to allow precision measurements of charm and beauty production. Even more interesting are possible medical and astrophysical applications. The usage of the Pixel Chamber as scatterer detector in Compton Cameras would reduce by orders of magnitude the numbers of gammas required for performing a precise source imaging, both for in vivo monitoring during hadron therapy and for astrophysics measurements.
像素室:用于魅力和美丽的3D成像的固态主动目标
Pixel Chamber项目的目的是生产第一个能够执行连续、高分辨率(0 (μ m)) 3D跟踪的固态主动目标。其目标是创建一个类似气泡室的高粒度堆栈,将数百个非常薄的单片有源像素传感器(MAPS)粘合在一起。本文将介绍为欧洲核子研究中心(CERN)大型强子对撞机(LHC) ALICE实验设计的第一个ALPIDE传感器原型的研发过程。开发了跟踪和顶点算法来重建像素室内部的轨迹和顶点。在蒙特卡罗模拟上进行了测试,结果表明,该方法可以获得高效率的强子轨迹重建,以及探测器内部的主、次顶点重建。该跟踪算法已在测试波束数据上进行了测试,以重建平行于波束的单个ALPIDE传感器产生的长轨迹。结果表明,在单个ALPIDE上可以获得很好的长航迹重建性能。在可能的应用中,Pixel Chamber作为一个主动目标,有可能实现对魅力和美容产品的精确测量。更有趣的是它可能在医学和天体物理学上的应用。在康普顿相机中使用像素室作为散射探测器,无论是强子治疗期间的体内监测还是天体物理测量,都将减少执行精确源成像所需的伽马数的数量级。
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