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A Neural Network with Convolutional Module and Residual Structure for Radar Target Recognition Based on
Zhequan Fu1, Shangsheng Li1, Xiangping Li1
1Coast Defense College, Naval Aviation University, Yantai 264001, China.
Sensors (Basel, Switzerland)
|January 25, 2020
Summary
A new neural network model with micro convolutional modules and a novel loss function improves recognition accuracy for High Range Resolution Profile (HRRP) signals. This approach overcomes saturation issues in deep networks, offering better performance than conventional structures.
Area of Science:
- Computer Science
- Artificial Intelligence
- Signal Processing
Background:
- Conventional deep neural networks require significant depth for high recognition accuracy.
- Deep networks can suffer from saturation, leading to decreased accuracy with increased layers.
- Recognition of High Range Resolution Profile (HRRP) signals presents challenges for traditional models.
Purpose of the Study:
- To propose a novel neural network model to address the limitations of conventional deep networks in recognition tasks.
- To enhance feature separability using a new loss function incorporating boundary constraints and center clustering.
- To improve the accuracy and robustness of HRRP signal recognition.
Main Methods:
- A neural network model incorporating a micro convolutional module and residual structure was developed.
- A novel loss function was designed, integrating boundary constraints and center clustering for improved feature separability.
- The model was evaluated using a simulated dataset of HRRP signals from thirteen 3D CAD object models.
Main Results:
- The proposed model achieved higher recognition accuracy compared to common network structures.
- The model demonstrated enhanced robustness in HRRP signal recognition.
- The micro convolutional module and residual structure contributed to fewer hyper-parameters and flexible extensibility.
Conclusions:
- The presented neural network model effectively overcomes the saturation problem in deep networks.
- The novel loss function significantly enhances feature separability, leading to improved recognition performance.
- The proposed approach offers a more accurate and robust solution for HRRP signal recognition.
