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SigDA: A Superimposed Domain Adaptation Framework for Automatic Modulation Classification
DOI:10.1109/TWC.2024.3399067.png)
Abstract
En 中文
Due to the uncertainty of non-cooperative communication channels, the received signals often contain various impairment factors, leading to a significant decline in the performance of existing deep learning (DL)-based automatic modulation classification (AMC) models. Several preliminary works utilize domain adaptation (DA) to alleviate this issue, however, they are constrained by singular domain difference factor, whereas in practice, these factors often manifest cumulatively. Therefore, this paper introduce a more realistic task named superimposed DA, where multiple domain difference factors are overlaid, reflecting the cumulative nature of them. We propose the SigDA as a solution framework, which adopts adversarial training to align the data distribution in different domains. Two technical modules, Multi-task based Masked Signal Feature Extractor (M2SFE) and Signal Feature Pyramid Aggregation (SFPA), are innovatively designed in SigDA. M2SFE utilizes mask and reconstruction task to enhance feature extraction and achieves discriminative feature selection through the design of feature mapping layers, while SFPA can solve the problem of inconsistent signal length in superimposed DA and can aggregate the features of signals into the same dimension. We consider and superimpose various typical signal domain difference factors, comprehensive experiments demonstrate that the proposed framework can achieve significant performance improvement in various communication channels.
Keywords:
Feature extraction
Task analysis
Modulation
Adaptation models
Convolution
Data models
Wireless communication
Automatic modulation classification
domain adaptation
multi-task learning
adversarial training
Journal
IF:
10.7
Papers:
1.3W
Citations:
5.3W
Organization
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RSC Advances
IF0

