_version_ 1866912983046684672
author Miao, Dexing
Xiang, Zhiyu
Ambrosi, Giovanni
Barbanera, Mattia
Batsukh, Baasansuren
Cai, Mengke
Cai, Xudong
Chang, Yuan-Hann
Chen, Shanzhen
Chou, Hsin-Yi
Cui, Xingzhu
Dong, Mingyi
Duranti, Matteo
Gong, Ke
Feng, Mingjie
Formato, Valerio
Hong, Daojin
Ionica, Maria
Jiang, Xiaojie
Jiang, Yaozu
Jin, Liangchenglong
Jin, Shengjie
Koutsenko, Vladimir
Li, Tiange
Li, Zuhao
Lin, Chih-Hsun
Liu, Cong
Liu, Pingcheng
Lv, Xingjian
Oliva, Alberto
Peng, Ji
Peng, Wenxi
Qiao, Rui
Sheng, Shuqi
Silvestre, Gianluigi
Wang, Congcong
Wang, Feng
Wang, Hongbo
Wu, Zibing
Xiao, Suyu
Xu, Weiwei
Yang, Sheng
Yuan, Xuhao
Zhang, Xiyuan
Xu, Zijun
Wang, Jianchun
author_facet Miao, Dexing
Xiang, Zhiyu
Ambrosi, Giovanni
Barbanera, Mattia
Batsukh, Baasansuren
Cai, Mengke
Cai, Xudong
Chang, Yuan-Hann
Chen, Shanzhen
Chou, Hsin-Yi
Cui, Xingzhu
Dong, Mingyi
Duranti, Matteo
Gong, Ke
Feng, Mingjie
Formato, Valerio
Hong, Daojin
Ionica, Maria
Jiang, Xiaojie
Jiang, Yaozu
Jin, Liangchenglong
Jin, Shengjie
Koutsenko, Vladimir
Li, Tiange
Li, Zuhao
Lin, Chih-Hsun
Liu, Cong
Liu, Pingcheng
Lv, Xingjian
Oliva, Alberto
Peng, Ji
Peng, Wenxi
Qiao, Rui
Sheng, Shuqi
Silvestre, Gianluigi
Wang, Congcong
Wang, Feng
Wang, Hongbo
Wu, Zibing
Xiao, Suyu
Xu, Weiwei
Yang, Sheng
Yuan, Xuhao
Zhang, Xiyuan
Xu, Zijun
Wang, Jianchun
contents A high-granularity telescope system with a large sensitive area and low material budget has been developed for high-energy heavy ion beam tests. The telescope consists of nine layers of silicon microstrip detectors (SSDs), whose performance was validated through a heavy ion beam test at the CERN SPS. A hybrid machine learning algorithm is proposed to address the challenges of nuclear charge measurement with SSDs. The system achieves a spatial resolution of $\mathcal{O}(1) \,$\SI{}{\micro\metre} and a charge resolution better than 0.16 charge units for nuclei from $Z = 1$ to $Z = 29$, with a sensitive area of $8 \times 8 \, \mathrm{cm}^2$. To the best of our knowledge, this represents the most precise charge and spatial resolution simultaneously achieved by a silicon telescope to date.
format Preprint
id arxiv_https___arxiv_org_abs_2603_25080
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle A Telescope System for Charge and Position Measurement of High Energy Nuclei
Miao, Dexing
Xiang, Zhiyu
Ambrosi, Giovanni
Barbanera, Mattia
Batsukh, Baasansuren
Cai, Mengke
Cai, Xudong
Chang, Yuan-Hann
Chen, Shanzhen
Chou, Hsin-Yi
Cui, Xingzhu
Dong, Mingyi
Duranti, Matteo
Gong, Ke
Feng, Mingjie
Formato, Valerio
Hong, Daojin
Ionica, Maria
Jiang, Xiaojie
Jiang, Yaozu
Jin, Liangchenglong
Jin, Shengjie
Koutsenko, Vladimir
Li, Tiange
Li, Zuhao
Lin, Chih-Hsun
Liu, Cong
Liu, Pingcheng
Lv, Xingjian
Oliva, Alberto
Peng, Ji
Peng, Wenxi
Qiao, Rui
Sheng, Shuqi
Silvestre, Gianluigi
Wang, Congcong
Wang, Feng
Wang, Hongbo
Wu, Zibing
Xiao, Suyu
Xu, Weiwei
Yang, Sheng
Yuan, Xuhao
Zhang, Xiyuan
Xu, Zijun
Wang, Jianchun
Instrumentation and Detectors
Instrumentation and Methods for Astrophysics
A high-granularity telescope system with a large sensitive area and low material budget has been developed for high-energy heavy ion beam tests. The telescope consists of nine layers of silicon microstrip detectors (SSDs), whose performance was validated through a heavy ion beam test at the CERN SPS. A hybrid machine learning algorithm is proposed to address the challenges of nuclear charge measurement with SSDs. The system achieves a spatial resolution of $\mathcal{O}(1) \,$\SI{}{\micro\metre} and a charge resolution better than 0.16 charge units for nuclei from $Z = 1$ to $Z = 29$, with a sensitive area of $8 \times 8 \, \mathrm{cm}^2$. To the best of our knowledge, this represents the most precise charge and spatial resolution simultaneously achieved by a silicon telescope to date.
title A Telescope System for Charge and Position Measurement of High Energy Nuclei
topic Instrumentation and Detectors
Instrumentation and Methods for Astrophysics
url https://arxiv.org/abs/2603.25080