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Main Authors: Wang, Ao-Bo, Pan, Chu-Cheng, Dong, Xiang, Sun, Yu-Chang, Hu, Yu-Xuan, Cheng, Ao-Yan, Cai, Hao, Fan, Xi-Long
Format: Preprint
Published: 2024
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Online Access:https://arxiv.org/abs/2410.06539
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author Wang, Ao-Bo
Pan, Chu-Cheng
Dong, Xiang
Sun, Yu-Chang
Hu, Yu-Xuan
Cheng, Ao-Yan
Cai, Hao
Fan, Xi-Long
author_facet Wang, Ao-Bo
Pan, Chu-Cheng
Dong, Xiang
Sun, Yu-Chang
Hu, Yu-Xuan
Cheng, Ao-Yan
Cai, Hao
Fan, Xi-Long
contents Cosmic muon imaging technology is increasingly being applied in various fields. However, simulating cosmic muons typically requires the rapid generation of a large number of muons and tracking their complex trajectories through intricate structures. This process is highly computationally demanding and consumes significant CPU time. To address these challenges, we introduce DeepMuon, an innovative deep learning model designed to efficiently and accurately generate cosmic muon distributions. In our approach, we employ the inverse Box-Cox transformation to reduce the kurtosis of the muon energy distribution, making it more statistically manageable for the model to learn. Additionally, we utilize the Sliced Wasserstein Distance (SWD) as a loss function to ensure precise simulation of the high-dimensional distributions of cosmic muons. We also demonstrate that DeepMuon can accurately learn muon distribution patterns from a limited set of data, enabling it to simulate real-world cosmic muon distributions as captured by detectors. Compared to traditional tools like CRY, DeepMuon significantly increases the speed of muon generation at sea level. Furthermore, we have developed a pipeline using DeepMuon that directly simulates muon distributions in underwater environments, dramatically accelerating simulations for underwater muon radiography and tomography. For more details on our open-source project, please visit https://github.com/wangab0/deepmuon.
format Preprint
id arxiv_https___arxiv_org_abs_2410_06539
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle DeepMuon: Accelerating Cosmic-Ray Muon Simulation Based on Optimal Transport
Wang, Ao-Bo
Pan, Chu-Cheng
Dong, Xiang
Sun, Yu-Chang
Hu, Yu-Xuan
Cheng, Ao-Yan
Cai, Hao
Fan, Xi-Long
High Energy Physics - Experiment
Cosmic muon imaging technology is increasingly being applied in various fields. However, simulating cosmic muons typically requires the rapid generation of a large number of muons and tracking their complex trajectories through intricate structures. This process is highly computationally demanding and consumes significant CPU time. To address these challenges, we introduce DeepMuon, an innovative deep learning model designed to efficiently and accurately generate cosmic muon distributions. In our approach, we employ the inverse Box-Cox transformation to reduce the kurtosis of the muon energy distribution, making it more statistically manageable for the model to learn. Additionally, we utilize the Sliced Wasserstein Distance (SWD) as a loss function to ensure precise simulation of the high-dimensional distributions of cosmic muons. We also demonstrate that DeepMuon can accurately learn muon distribution patterns from a limited set of data, enabling it to simulate real-world cosmic muon distributions as captured by detectors. Compared to traditional tools like CRY, DeepMuon significantly increases the speed of muon generation at sea level. Furthermore, we have developed a pipeline using DeepMuon that directly simulates muon distributions in underwater environments, dramatically accelerating simulations for underwater muon radiography and tomography. For more details on our open-source project, please visit https://github.com/wangab0/deepmuon.
title DeepMuon: Accelerating Cosmic-Ray Muon Simulation Based on Optimal Transport
topic High Energy Physics - Experiment
url https://arxiv.org/abs/2410.06539