A deep learning approach for predicting the antenna pointing error caused by transmission faults with simulation data

Abstract Reflector antenna has been widely used in deep space exploration, radar warning, and other fields, all of which requires high pointing accuracy. The antenna elevation bearings are the key component that guarantees its pointing accuracy, while any degradation or fault can seriously affect th...

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Main Authors: Lihui Chen, Song Xue, Peiyuan Lian, Qian Xu, Meng Wang, Congsi Wang
Format: Article
Language:English
Published: Nature Portfolio 2024-12-01
Series:Scientific Reports
Subjects:
Online Access:https://doi.org/10.1038/s41598-024-83103-1
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author Lihui Chen
Song Xue
Peiyuan Lian
Qian Xu
Meng Wang
Congsi Wang
author_facet Lihui Chen
Song Xue
Peiyuan Lian
Qian Xu
Meng Wang
Congsi Wang
author_sort Lihui Chen
collection DOAJ
description Abstract Reflector antenna has been widely used in deep space exploration, radar warning, and other fields, all of which requires high pointing accuracy. The antenna elevation bearings are the key component that guarantees its pointing accuracy, while any degradation or fault can seriously affect the antenna’s performance, leading to deviations in antenna pointing and instability during operation. However, the relationship between the antenna elevation bearing fault and its pointing accuracy remains unclear because there is insufficient experimental faulty transmission data and pointing error collected from the test-rig simultaneously. Therefore, this paper aims to establish a deep learning model-based relationship to reveal the underlying relationship between the antenna transmission faults and its pointing accuracy. By linking the two, transmission faults in key components can serve as a substitute for pointing accuracy as one of the criteria for antenna maintenance decisions, vibration signals, serving as a basis for fault diagnosis, can be collected and processed in real-time without the need for equipment shutdowns, undoubtedly bringing convenience to antenna maintenance providing a theoretical basis for the development of antenna maintenance strategies. In order to overcome the problem of insufficient data, this paper has established an antenna elevation system dynamic simulation model containing pre-defined transmission faults. Furthermore, to link antenna fault diagnosis with antenna pointing errors, a mathematical model for antenna axis error analysis has been established. Finally, labeled fault data and antenna pointing errors have been put into the deep neural network model for training to obtain the prediction model for predicting antenna axis error. The results showed that faults in the key transmission components have a significant impact on antenna pointing errors and the proposed deep neural network learning model exhibits a high predictive accuracy.
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institution Kabale University
issn 2045-2322
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spelling doaj-art-43b7886813f74999aabc06f3567a285d2025-01-05T12:26:57ZengNature PortfolioScientific Reports2045-23222024-12-0114112310.1038/s41598-024-83103-1A deep learning approach for predicting the antenna pointing error caused by transmission faults with simulation dataLihui Chen0Song Xue1Peiyuan Lian2Qian Xu3Meng Wang4Congsi Wang5State Key Laboratory of Electromechanical Integrated Manufacturing of High-Performance Electronic Equipments, Xidian UniversityState Key Laboratory of Electromechanical Integrated Manufacturing of High-Performance Electronic Equipments, Xidian UniversityState Key Laboratory of Electromechanical Integrated Manufacturing of High-Performance Electronic Equipments, Xidian UniversityXinJiang Astronomical Observatory, China Academy of SciencesResearch Institute of Shaanxi Huanghe Group Co., Ltd.Guangzhou Institute of Technology, Xidian UniversityAbstract Reflector antenna has been widely used in deep space exploration, radar warning, and other fields, all of which requires high pointing accuracy. The antenna elevation bearings are the key component that guarantees its pointing accuracy, while any degradation or fault can seriously affect the antenna’s performance, leading to deviations in antenna pointing and instability during operation. However, the relationship between the antenna elevation bearing fault and its pointing accuracy remains unclear because there is insufficient experimental faulty transmission data and pointing error collected from the test-rig simultaneously. Therefore, this paper aims to establish a deep learning model-based relationship to reveal the underlying relationship between the antenna transmission faults and its pointing accuracy. By linking the two, transmission faults in key components can serve as a substitute for pointing accuracy as one of the criteria for antenna maintenance decisions, vibration signals, serving as a basis for fault diagnosis, can be collected and processed in real-time without the need for equipment shutdowns, undoubtedly bringing convenience to antenna maintenance providing a theoretical basis for the development of antenna maintenance strategies. In order to overcome the problem of insufficient data, this paper has established an antenna elevation system dynamic simulation model containing pre-defined transmission faults. Furthermore, to link antenna fault diagnosis with antenna pointing errors, a mathematical model for antenna axis error analysis has been established. Finally, labeled fault data and antenna pointing errors have been put into the deep neural network model for training to obtain the prediction model for predicting antenna axis error. The results showed that faults in the key transmission components have a significant impact on antenna pointing errors and the proposed deep neural network learning model exhibits a high predictive accuracy.https://doi.org/10.1038/s41598-024-83103-1Large antennasTransmission faultsPointing accuracyAxis errorIntelligent prediction
spellingShingle Lihui Chen
Song Xue
Peiyuan Lian
Qian Xu
Meng Wang
Congsi Wang
A deep learning approach for predicting the antenna pointing error caused by transmission faults with simulation data
Scientific Reports
Large antennas
Transmission faults
Pointing accuracy
Axis error
Intelligent prediction
title A deep learning approach for predicting the antenna pointing error caused by transmission faults with simulation data
title_full A deep learning approach for predicting the antenna pointing error caused by transmission faults with simulation data
title_fullStr A deep learning approach for predicting the antenna pointing error caused by transmission faults with simulation data
title_full_unstemmed A deep learning approach for predicting the antenna pointing error caused by transmission faults with simulation data
title_short A deep learning approach for predicting the antenna pointing error caused by transmission faults with simulation data
title_sort deep learning approach for predicting the antenna pointing error caused by transmission faults with simulation data
topic Large antennas
Transmission faults
Pointing accuracy
Axis error
Intelligent prediction
url https://doi.org/10.1038/s41598-024-83103-1
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