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Auteurs principaux: Yu, Hongtian, Li, Yangu, Wu, Mingrui, Shen, Letian, Liu, Yue, Song, Yunxuan, Ye, Qixiang, Lyu, Xiao-Rui, Mao, Yajun, Zheng, Yangheng, Liu, Yunfan
Format: Preprint
Publié: 2024
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Accès en ligne:https://arxiv.org/abs/2408.10599
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author Yu, Hongtian
Li, Yangu
Wu, Mingrui
Shen, Letian
Liu, Yue
Song, Yunxuan
Ye, Qixiang
Lyu, Xiao-Rui
Mao, Yajun
Zheng, Yangheng
Liu, Yunfan
author_facet Yu, Hongtian
Li, Yangu
Wu, Mingrui
Shen, Letian
Liu, Yue
Song, Yunxuan
Ye, Qixiang
Lyu, Xiao-Rui
Mao, Yajun
Zheng, Yangheng
Liu, Yunfan
contents In high-energy physics, anti-neutrons ($\bar{n}$) are fundamental particles that frequently appear as final-state particles, and the reconstruction of their kinematic properties provides an important probe for understanding the governing principles. However, this confronts significant challenges instrumentally with the electromagnetic calorimeter (EMC), a typical experimental sensor but recovering the information of incident $\bar{n}$ insufficiently. In this study, we introduce Vision Calorimeter (ViC), a baseline method for anti-neutron reconstruction that leverages deep learning detectors to analyze the implicit relationships between EMC responses and incident $\bar{n}$ characteristics. Our motivation lies in that energy distributions of $\bar{n}$ samples deposited in the EMC cell arrays embody rich contextual information. Converted to 2-D images, such contextual energy distributions can be used to predict the status of $\bar{n}$ ($i.e.$, incident position and momentum) through a deep learning detector along with pseudo bounding boxes and a specified training objective. Experimental results demonstrate that ViC substantially outperforms the conventional reconstruction approach, reducing the prediction error of incident position by 42.81% (from 17.31$^{\circ}$ to 9.90$^{\circ}$). More importantly, this study for the first time realizes the measurement of incident $\bar{n}$ momentum, underscoring the potential of deep learning detectors for particle reconstruction. Code is available at https://github.com/yuhongtian17/ViC.
format Preprint
id arxiv_https___arxiv_org_abs_2408_10599
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Vision Calorimeter for Anti-neutron Reconstruction: A Baseline
Yu, Hongtian
Li, Yangu
Wu, Mingrui
Shen, Letian
Liu, Yue
Song, Yunxuan
Ye, Qixiang
Lyu, Xiao-Rui
Mao, Yajun
Zheng, Yangheng
Liu, Yunfan
High Energy Physics - Experiment
Computer Vision and Pattern Recognition
In high-energy physics, anti-neutrons ($\bar{n}$) are fundamental particles that frequently appear as final-state particles, and the reconstruction of their kinematic properties provides an important probe for understanding the governing principles. However, this confronts significant challenges instrumentally with the electromagnetic calorimeter (EMC), a typical experimental sensor but recovering the information of incident $\bar{n}$ insufficiently. In this study, we introduce Vision Calorimeter (ViC), a baseline method for anti-neutron reconstruction that leverages deep learning detectors to analyze the implicit relationships between EMC responses and incident $\bar{n}$ characteristics. Our motivation lies in that energy distributions of $\bar{n}$ samples deposited in the EMC cell arrays embody rich contextual information. Converted to 2-D images, such contextual energy distributions can be used to predict the status of $\bar{n}$ ($i.e.$, incident position and momentum) through a deep learning detector along with pseudo bounding boxes and a specified training objective. Experimental results demonstrate that ViC substantially outperforms the conventional reconstruction approach, reducing the prediction error of incident position by 42.81% (from 17.31$^{\circ}$ to 9.90$^{\circ}$). More importantly, this study for the first time realizes the measurement of incident $\bar{n}$ momentum, underscoring the potential of deep learning detectors for particle reconstruction. Code is available at https://github.com/yuhongtian17/ViC.
title Vision Calorimeter for Anti-neutron Reconstruction: A Baseline
topic High Energy Physics - Experiment
Computer Vision and Pattern Recognition
url https://arxiv.org/abs/2408.10599