Signal Automatic Modulation Classification and Recognition in View of Deep Learning

With the advancement of 5G technology, wireless communication resources such as channels and spectrum become scarce. This necessitates ensuring the efficiency and security of signal modulation and demodulation, which imposes higher requirements for wireless communication systems. However, signal mod...

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Main Authors: Tianpei Xu, Ying Ma
Format: Article
Language:English
Published: IEEE 2023-01-01
Series:IEEE Access
Subjects:
Online Access:https://ieeexplore.ieee.org/document/10286033/
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author Tianpei Xu
Ying Ma
author_facet Tianpei Xu
Ying Ma
author_sort Tianpei Xu
collection DOAJ
description With the advancement of 5G technology, wireless communication resources such as channels and spectrum become scarce. This necessitates ensuring the efficiency and security of signal modulation and demodulation, which imposes higher requirements for wireless communication systems. However, signal modulation has the problems of large amount of data, low recognition accuracy and various types. In this study, a classification network of automatic modulation classification recognition algorithm for signal-to-noise ratio is proposed to solve the problem that traditional noise reduction algorithms will damage signals with high signal-to-noise ratio, consequently reducing the accuracy of signal recognition. In order to solve the problem of high complexity of network model algorithm, in particular, a signal automatic modulation classification and recognition algorithm based on neural network autoencoder is proposed. Experimental results show that the accuracy of signal automatic modulation classification recognition in the algorithm increases as the increase of modulation signals and tends to be stable. When the modulation signal is 0dB, the recognition accuracy gradually converges to the highest, and reaches 81.6% when the modulation signal is 18 dB. In contrast, the DenseNet algorithm has the lowest recognition accuracy, with only 77.5% recognition accuracy when the signal modulation classification is 18dB, a difference of 4.1%. This indicates that the algorithm performs exceptionally well in automatic signal modulation classification, and its complexity is lower than other comparative network models, providing certain advantages.
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spelling doaj.art-dae183726bb84d40ae914cf4dda7629a2023-10-20T23:00:31ZengIEEEIEEE Access2169-35362023-01-011111462311463710.1109/ACCESS.2023.332467310286033Signal Automatic Modulation Classification and Recognition in View of Deep LearningTianpei Xu0Ying Ma1https://orcid.org/0009-0005-9920-3784College of Education, Hulunbuir University, Hulunbuir, ChinaCollege of Software, Nanchang Hangkong University, Nanchang, ChinaWith the advancement of 5G technology, wireless communication resources such as channels and spectrum become scarce. This necessitates ensuring the efficiency and security of signal modulation and demodulation, which imposes higher requirements for wireless communication systems. However, signal modulation has the problems of large amount of data, low recognition accuracy and various types. In this study, a classification network of automatic modulation classification recognition algorithm for signal-to-noise ratio is proposed to solve the problem that traditional noise reduction algorithms will damage signals with high signal-to-noise ratio, consequently reducing the accuracy of signal recognition. In order to solve the problem of high complexity of network model algorithm, in particular, a signal automatic modulation classification and recognition algorithm based on neural network autoencoder is proposed. Experimental results show that the accuracy of signal automatic modulation classification recognition in the algorithm increases as the increase of modulation signals and tends to be stable. When the modulation signal is 0dB, the recognition accuracy gradually converges to the highest, and reaches 81.6% when the modulation signal is 18 dB. In contrast, the DenseNet algorithm has the lowest recognition accuracy, with only 77.5% recognition accuracy when the signal modulation classification is 18dB, a difference of 4.1%. This indicates that the algorithm performs exceptionally well in automatic signal modulation classification, and its complexity is lower than other comparative network models, providing certain advantages.https://ieeexplore.ieee.org/document/10286033/Neural network self codingconvolutional long short term memory networkautomatic signal modulationsignal-to-noise ratio classful network
spellingShingle Tianpei Xu
Ying Ma
Signal Automatic Modulation Classification and Recognition in View of Deep Learning
IEEE Access
Neural network self coding
convolutional long short term memory network
automatic signal modulation
signal-to-noise ratio classful network
title Signal Automatic Modulation Classification and Recognition in View of Deep Learning
title_full Signal Automatic Modulation Classification and Recognition in View of Deep Learning
title_fullStr Signal Automatic Modulation Classification and Recognition in View of Deep Learning
title_full_unstemmed Signal Automatic Modulation Classification and Recognition in View of Deep Learning
title_short Signal Automatic Modulation Classification and Recognition in View of Deep Learning
title_sort signal automatic modulation classification and recognition in view of deep learning
topic Neural network self coding
convolutional long short term memory network
automatic signal modulation
signal-to-noise ratio classful network
url https://ieeexplore.ieee.org/document/10286033/
work_keys_str_mv AT tianpeixu signalautomaticmodulationclassificationandrecognitioninviewofdeeplearning
AT yingma signalautomaticmodulationclassificationandrecognitioninviewofdeeplearning