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Auteurs principaux: Kaneko, Fumihiro, Kuno, Yoshitaka, Sato, Joe, Sato, Ikuya, Pieters, Dorian, Wu, Chen
Format: Preprint
Publié: 2024
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Accès en ligne:https://arxiv.org/abs/2408.04795
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author Kaneko, Fumihiro
Kuno, Yoshitaka
Sato, Joe
Sato, Ikuya
Pieters, Dorian
Wu, Chen
author_facet Kaneko, Fumihiro
Kuno, Yoshitaka
Sato, Joe
Sato, Ikuya
Pieters, Dorian
Wu, Chen
contents We present a pioneering approach to tracking analysis within the COMET Phase-I experiment, which aims to search for the charged lepton flavor violating $μ\to e$ conversion process in a muonic atom, at J-PARC, Japan. This paper specifically introduces the extraction of signal electron trajectories in the COMET Phase-I cylindrical drift chamber (CDC) amidst a high background hit rate, with more than $40\,\%$ occupancy of the total CDC cells, utilizing deep learning techniques of semantic segmentation. Our model achieved remarkable results, with a purity rate of $98\,\%$ and a retention rate of $90\,\%$ for CDC cells with signal hits, surpassing the design-goal performance of $90\,\%$ for both metrics. This study marks the initial application of deep learning to COMET tracking, paving the way for more advanced techniques in future research.
format Preprint
id arxiv_https___arxiv_org_abs_2408_04795
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Extracting Signal Electron Trajectories in the COMET Phase-I Cylindrical Drift Chamber Using Deep Learning
Kaneko, Fumihiro
Kuno, Yoshitaka
Sato, Joe
Sato, Ikuya
Pieters, Dorian
Wu, Chen
High Energy Physics - Experiment
High Energy Physics - Phenomenology
We present a pioneering approach to tracking analysis within the COMET Phase-I experiment, which aims to search for the charged lepton flavor violating $μ\to e$ conversion process in a muonic atom, at J-PARC, Japan. This paper specifically introduces the extraction of signal electron trajectories in the COMET Phase-I cylindrical drift chamber (CDC) amidst a high background hit rate, with more than $40\,\%$ occupancy of the total CDC cells, utilizing deep learning techniques of semantic segmentation. Our model achieved remarkable results, with a purity rate of $98\,\%$ and a retention rate of $90\,\%$ for CDC cells with signal hits, surpassing the design-goal performance of $90\,\%$ for both metrics. This study marks the initial application of deep learning to COMET tracking, paving the way for more advanced techniques in future research.
title Extracting Signal Electron Trajectories in the COMET Phase-I Cylindrical Drift Chamber Using Deep Learning
topic High Energy Physics - Experiment
High Energy Physics - Phenomenology
url https://arxiv.org/abs/2408.04795