用于精确轨道定时的硅探测器

G. Kramberger
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引用次数: 0

摘要

硅探测器是目前粒子物理实验中应用最广泛的精确跟踪和顶点探测器技术。对未来粒子物理实验的要求越来越高,不仅要求位置分辨率(~𝑓𝑒𝑤m)和减小的像素尺寸,而且还要求能够精确地在几十ps的水平上测量粒子撞击探测器的时间。在混合像素探测器中,有两个发展方向。薄型低增益雪崩探测器利用内部增益来实现所需的信噪比和快速信号。另一方面,较厚的3D传感器利用垂直电极提供的较短漂移距离来快速收集电荷和获得足够的信号。单片有源像素检测器提供了可实现的信号/噪声和厚度之间的折衷,并且利用雪崩乘法的最新发展可以提供出色的性能。本文将讨论不同技术的基础、优势和局限性以及未来发展的可能方向。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Silicon detectors for precision track timing
Silicon detectors are the most widely used detector technology for precise tracking and vertex detectors at present experiments in particle physics. The requirements for future particle physics experiments are getting even more demanding, not only in required position resolution ( ∼ 𝑓 𝑒𝑤𝜇 m) and reduced pixel sizes, but also in ability to accurately, on the level of tens ps, measure the time of the particle hitting the detector. Among the hybrid pixel detectors there are two directions of developments. Thin Low gain avalanche detectors exploit internal gain to achieve required S/N and fast signal. On the other hand thicker 3D sensors exploit short drift distance given by vertical electrodes for fast charge collection and adequate signal. Monolithic Active Pixel Detectors offer a compromise between achievable signal/noise and thickness and recent developments exploiting also avalanche multiplication can offer excellent performance. The present paper will discuss basics, strengths and limitations of different technologies and possible directions of future developments.
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