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| Citation: | GUAN Jian, LIU Ningbo, WANG Guoqing, et al. Sea-detecting radar experiment and target feature data acquisition for dual polarization multistate scattering dataset of marine targets[J]. Journal of Radars, 2023, 12(2): 456–469. doi: 10.12000/JR23029
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Sea-detecting Radar Experiment and Target Feature Data Acquisition for Dual Polarization Multistate Scattering Dataset of Marine Targets（in English）
DOI: 10.12000/JR23029
More Information-
Abstract
Marine target detection and recognition depend on the characteristics of marine targets and sea clutter. Therefore, understanding the essential features of marine targets based on the measured data is crucial for advancing target detection and recognition technology. To address the issue of insufficient data on the scattering characteristics of marine targets, the Sea-Detecting Radar Data-Sharing Program (SDRDSP) was upgraded to obtain data on marine targets and their environment under different polarizations and sea states. This upgrade expanded the physical dimension of radar target observation and improved radar and auxiliary data acquisition capabilities. Furthermore, a dual-polarized multistate scattering characteristic dataset of marine targets was constructed, and the statistical distribution characteristics, time and space correlation, and Doppler spectrum were analyzed, supporting the data usage. In the future, the types and quantities of maritime targets will continue to accumulate, providing data support for improving marine target detection and recognition performance and intelligence. -
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Wu Yong, Wang Jun. Application of Mixed Kalman Filter to Passive Radar Target Tracking[J]. Journal of Radars, 2014, 3(6): 652-659. doi: 10.12000/JR14113
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- Figure 1. Two X-band solid-state fully coherent radars
- Figure 2. Three modes of combined pulse emission
- Figure 3. HD-LD-CJ-22 radar data acquisition and control software
- Figure 4. Overview of the Zhifu island test site
- Figure 5. Channel buoy
- Figure 6. Meteorological and hydrological data of the test sea area (NC data)
- Figure 7. Typical data of HH polarized radar
- Figure 8. Typical data of VV polarized radar
- Figure 9. Amplitude distribution fitting results of sea clutter bins
- Figure 10. Time correlation of sea clutter and target bin
- Figure 11. Spatial correlation of distance dimension
- Figure 12. Time spectrum of target bins (buoy 1)
- Figure S1. Sea-detecting radar data 2022 phase 1－－Sea target scattering feature dataset
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