Multifunction radar signal sorting method based on data field and Finch-Means

In addressing the issues faced by traditional signal sorting methods and clustering algorithms in complex electromagnetic environments, such as the need for prior knowledge, initial center selection, and signal batch increment, a multifunctional radar signal sorting method based on Data Field and Finch-Means is proposed. Initially, the integration of the signal envelope "pulse leading edge" in the radar pulse signal fingerprint features into the Pulse Descriptor Word (PDW) is proposed, forming a new feature parameter (EPDW) used by the Data Field for the elimination of interference pulses. Concurrently, a K-means clustering algorithm based on the first-neighbor points (Finch-Means) is introduced. This algorithm employs the Finch algorithm to calculate the first neighbor vectors of the filtered pulses, preclassify the data, determine the number of clusters, and identify the initial cluster centers. Finally, the K-Means algorithm computes the distances from the pulses to each cluster center and assigns them to the nearest cluster center, completing the final sorting. Simulation experiments show that the average recognition rate of this algorithm reaches 97.85%. Compared to existing methods, the average correct recognition rate of a single radar improves by 14.88%, and the average recognition rate increases by 16.55%.

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Publication Details

Journal
IET conference proceedings.
Published
2025-01-01
DOI
https://doi.org/10.1049/icp.2024.2927
Primary Topic
Wireless Signal Modulation Classification
Type
article
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article

Multifunction radar signal sorting method based on data field and Finch-Means

Hong Liu, Guang Deng, Yiwei Liu
IET conference proceedings.
Wireless Signal Modulation Classification
article

Multifunction radar signal sorting method based on data field and Finch-Means

Hong Liu, Guang Deng, Yiwei Liu
article en

Abstract

In addressing the issues faced by traditional signal sorting methods and clustering algorithms in complex electromagnetic environments, such as the need for prior knowledge, initial center selection, and signal batch increment, a multifunctional radar signal sorting method based on Data Field and Finch-Means is proposed. Initially, the integration of the signal envelope "pulse leading edge" in the radar pulse signal fingerprint features into the Pulse Descriptor Word (PDW) is proposed, forming a new feature parameter (EPDW) used by the Data Field for the elimination of interference pulses. Concurrently, a K-means clustering algorithm based on the first-neighbor points (Finch-Means) is introduced. This algorithm employs the Finch algorithm to calculate the first neighbor vectors of the filtered pulses, preclassify the data, determine the number of clusters, and identify the initial cluster centers. Finally, the K-Means algorithm computes the distances from the pulses to each cluster center and assigns them to the nearest cluster center, completing the final sorting. Simulation experiments show that the average recognition rate of this algorithm reaches 97.85%. Compared to existing methods, the average correct recognition rate of a single radar improves by 14.88%, and the average recognition rate increases by 16.55%.

IET conference proceedings.Vol. 2024(9)
Peking University (CN), Beijing Satellite Navigation Center (CN), Beijing Information Science & Technology University (CN)
Openalex Percentile: Top 100%
Wireless Signal Modulation Classification
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