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LightWaveNet: a lightweight wavelet-enhanced high-low-frequency-aware network with multi-stage supervision for rice
Weiqiang Pi1, Tao Zhang2, Rongyang Wang1
1College of Intelligent Manufacturing and Elevator, Huzhou Vocational and Technical College, Huzhou, China.
Frontiers in Plant Science
|February 16, 2026
Summary
A new lightweight network, LightWaveNet, accurately identifies rice diseases using wavelet analysis. This efficient model balances high recognition accuracy with low computational cost for smart agriculture applications.
Area of Science:
- Agricultural Science
- Computer Vision
- Deep Learning
Background:
- Accurate rice disease identification is crucial for food security and intelligent agriculture.
- Existing deep learning models are computationally expensive and struggle to capture both fine-grained textures and structural features of diseased areas.
Purpose of the Study:
- To develop a lightweight and efficient deep learning network for accurate rice disease recognition.
- To address the limitations of existing models in handling high- and low-frequency information for comprehensive feature extraction.
Main Methods:
- Proposed LightWaveNet, a lightweight wavelet-enhanced high-low-frequency-aware network.
- Employed parallel wavelet convolution and max pooling for collaborative learning of frequency features.
- Utilized parallel max and average pooling during downsampling to preserve feature complementarity.
- Introduced multi-stage supervision for improved convergence and robustness.
Main Results:
- LightWaveNet achieved 95.90% recognition accuracy with only 0.28 M parameters and 0.02 G FLOPs.
- Demonstrated a favorable balance between accuracy and computational efficiency.
- Outperformed the Mobilenetv2 model in both accuracy and computational complexity.
Conclusions:
- LightWaveNet offers a feasible solution for rapid rice disease identification and intelligent prevention.
- Provides new insights into designing lightweight recognition networks for agricultural applications.
- Enables deployment on resource-constrained agricultural devices.
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