Generative Adversarial Learning for Spectrum Sensing
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Abstract (arXiv)
A novel approach of training data augmentation and domain adaptation is presented to support machine learning applications for cognitive radio. Machine learning provides effective tools to automate cognitive radio functionalities by reliably extracting and learning intrinsic spectrum dynamics. However, there are two important challenges to overcome, in order to fully utilize the machine learning benefits with cognitive radios. First, machine learning requires significant amount of truthed data to capture complex channel and emitter characteristics, and train the underlying algorithm (e.g., a classifier). Second, the training data that has been identified for one spectrum environment cannot be used for another one (e.g., after channel and emitter conditions change). To address these challenges, a generative adversarial network (GAN) with deep learning structures is used to 1)~generate additional synthetic training data to improve classifier accuracy, and 2) adapt training data to spectrum dynamics. This approach is applied to spectrum sensing by assuming only limited training data without knowledge of spectrum statistics. Machine learning classifiers are trained with limited, augmented and adapted training data to detect signals. Results show that training data augmentation increases the classifier accuracy significantly and this increase is sustained with domain adaptation as spectrum conditions change.
Key facts. Cited by 10 papers in the map (data through 14 Oct 2026). First posted on arXiv 2 Apr 2018.
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Citing papers per year: 2021: 4; 2022: 3; 2023: 0; 2024: 1; 2025: 2.
10 papers.
- 2021Adversarial Machine Learning for 5G Communications Securitycited by 12
- 2021Generative Adversarial Networks (GANs) in Networking: A Comprehensive Survey & Evaluationcited by 11
- 2022Machine Learning in NextG Networks via Generative Adversarial Networkscited by 8
- 2022When Machine Learning Meets Spectrum Sharing Security: Methodologies and Challengescited by 6
- 2021Deep Learning for Fast and Reliable Initial Access in AI-Driven 6G mmWave Networkscited by 3
- 2021End-to-End Autoencoder Communications with Optimized Interference Suppressioncited by 2
- 2022Sensing-Throughput Tradeoffs with Generative Adversarial Networks for NextG Spectrum Sharingcited by 1
- 2024Augmenting Training Data with Vector-Quantized Variational Autoencoder for Classifying RF Signalscited by 1
- 2025Deep Learning in Wireless Communication Receiver: A Surveycited by 1
- 2025Deep learning recognition and analysis of Volatile Organic Compounds based on experimental and synthetic infrared absorption spectracited by 0
- 2025Deep learning recognition and analysis of Volatile Organic Compounds based on experimental and synthetic infrared absorption spectra5 Dec 2025
- 2025Deep Learning in Wireless Communication Receiver: A Survey25 Jan 2025
- 2024Augmenting Training Data with Vector-Quantized Variational Autoencoder for Classifying RF Signals23 Oct 2024
- 2022Sensing-Throughput Tradeoffs with Generative Adversarial Networks for NextG Spectrum Sharing27 Dec 2022
- 2022Machine Learning in NextG Networks via Generative Adversarial Networks9 Mar 2022
- 2022When Machine Learning Meets Spectrum Sharing Security: Methodologies and Challenges12 Jan 2022
- 2021End-to-End Autoencoder Communications with Optimized Interference Suppression29 Dec 2021
- 2021Generative Adversarial Networks (GANs) in Networking: A Comprehensive Survey & Evaluation10 May 2021
- 2021Adversarial Machine Learning for 5G Communications Security7 Jan 2021
- 2021Deep Learning for Fast and Reliable Initial Access in AI-Driven 6G mmWave Networks6 Jan 2021