DROUGHT RECOGNITION FOR THE SOYBEAN PLANT BASED ON LIGHTWEIGHT DEEP LEARNING MODEL

To address the issues of low soybean self-sufficiency and drought - related production constraints, multispectral imaging can non - invasively detect crop characteristics, while deep convolutional networks identify drought from multispectral images. However, large models face mobility limitations due to high computational requirements.This study presents a mobile detection approach integrating ReliefF feature screening and lightweight convolutional neural networks, and develops the "Early Acknowledgment for Soybean Drought" App. It embeds a lightweight model that optimizes 37 - dimensional soybean canopy multispectral features via ReliefF and uses a three - layer 1D convolutional network for drought identification.The model achieves 96.88% classification accuracy on the self - built dataset, with an inference time of 18 ms, a size under 30 MB, and less than 60 MB memory usage on mobile. The APP integrates the multispectral camera SDK and PyTorch inference engine, enabling real - time spectral analysis. Field tests show its one - button operation, low learning curve for farmers, and significant water - saving and yield - increasing effects, offering a lightweight, high - precision mobile solution for soybean drought management and promoting smart agriculture development.

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Publication Details

Journal
Journal of Computer Science and Electrical Engineering
Published
2025-05-08
DOI
https://doi.org/10.61784/jcsee3063
Primary Topic
Soybean genetics and cultivation
Type
article
Field-Weighted Citation Impact
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article

DROUGHT RECOGNITION FOR THE SOYBEAN PLANT BASED ON LIGHTWEIGHT DEEP LEARNING MODEL

Journal of Computer Science and Electrical Engineering
Soybean genetics and cultivation
article

DROUGHT RECOGNITION FOR THE SOYBEAN PLANT BASED ON LIGHTWEIGHT DEEP LEARNING MODEL

article en

Abstract

To address the issues of low soybean self-sufficiency and drought - related production constraints, multispectral imaging can non - invasively detect crop characteristics, while deep convolutional networks identify drought from multispectral images. However, large models face mobility limitations due to high computational requirements.This study presents a mobile detection approach integrating ReliefF feature screening and lightweight convolutional neural networks, and develops the "Early Acknowledgment for Soybean Drought" App. It embeds a lightweight model that optimizes 37 - dimensional soybean canopy multispectral features via ReliefF and uses a three - layer 1D convolutional network for drought identification.The model achieves 96.88% classification accuracy on the self - built dataset, with an inference time of 18 ms, a size under 30 MB, and less than 60 MB memory usage on mobile. The APP integrates the multispectral camera SDK and PyTorch inference engine, enabling real - time spectral analysis. Field tests show its one - button operation, low learning curve for farmers, and significant water - saving and yield - increasing effects, offering a lightweight, high - precision mobile solution for soybean drought management and promoting smart agriculture development.

Journal of Computer Science and Electrical EngineeringVol. 7(4)
Heilongjiang Bayi Agricultural University (CN)
Zero hunger
Openalex Percentile: Top 93%
Soybean genetics and cultivation
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DROUGHT RECOGNITION FOR THE SOYBEAN PLANT BASED ON LIGHTWEIGHT DEEP LEARNING MODEL · Journal of Computer Science and Electrical Engineering (2025) | TGRS Research Map | TGRS