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Global Receptive-Based Neural Network for Target Recognition in SAR Images
IEEE Transactions on Cybernetics
|December 4, 2019
Summary
This study introduces a novel receptive neural network for radar target recognition, reducing the need for extensive labeled data and computational cost. It achieves comparable performance with limited training resources.
Area of Science:
- Artificial Intelligence
- Machine Learning
- Signal Processing
Background:
- Neural networks require large labeled datasets for parameter estimation, which are difficult to obtain for radar target recognition.
- High computational costs and slow convergence limit practical applications of current neural network models.
Purpose of the Study:
- To develop a novel receptive neural network strategy for radar target recognition.
- To address challenges of limited labeled samples and high computational costs.
- To improve efficiency and performance in realistic environments.
Main Methods:
- A two-module strategy: feature generation and feature refinement.
- Feature generation uses Riesz transform and bandpass filter banks to create receptive signals for global feature extraction.
- Receptive signals are predefined, not learned, to handle small sample sizes; refinement uses randomly generated weights and Hilbert space casting for kernel refinement.
Main Results:
- The proposed receptive neural network effectively extracts global features from SAR images.
- Predefined receptive signals and a specialized refinement unit enable learning with limited data.
- The strategy aims for comparable or superior performance with reduced training resources.
Conclusions:
- The novel receptive neural network offers a promising solution for radar target recognition with limited training data.
- This approach mitigates the need for extensive data collection and reduces computational burden.
- Expert knowledge integration and kernel refinement enhance model robustness and efficiency.

