Research on Non-Destructive Quality Detection of Sunflower Seeds Based on Terahertz Imaging Technology

The variety and content of high-quality proteins in sunflower seeds are higher than those in other cereals. However, sunflower seeds can suffer from abnormalities, such as breakage and deformity, during planting and harvesting, which hinder the development of the sunflower seed industry. Traditional methods such as manual sensory and machine sorting are highly subjective and cannot detect the internal characteristics of sunflower seeds. The development of spectral imaging technology has facilitated the application of terahertz waves in the quality inspection of sunflower seeds, owing to its advantages of non-destructive penetration and fast imaging. This paper proposes a novel terahertz image classification model, MobileViT-E, which is trained and validated on a self-constructed dataset of sunflower seeds. The results show that the overall recognition accuracy of the proposed model can reach 96.30%, which is 4.85%, 3%, 7.84% and 1.86% higher than those of the ResNet-50, EfficientNeT, MobileOne and MobileViT models, respectively. At the same time, the performance indices such as the recognition accuracy, the recall and the F1-score values are also effectively improved. Therefore, the MobileViT-E model proposed in this study can improve the classification and identification of normal, damaged and deformed sunflower seeds, and provide technical support for the non-destructive detection of sunflower seed quality.

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Publication Details

Journal
Foods
Published
2024-09-06
DOI
https://doi.org/10.3390/foods13172830
Citations
8
Primary Topic
Terahertz technology and applications
Type
article
Field-Weighted Citation Impact
1.67

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article

Research on Non-Destructive Quality Detection of Sunflower Seeds Based on Terahertz Imaging Technology

Yuying Jiang, Hongyi Ge, Yuan Zhang, Heng Wang et al.
8 citations
Foods
Terahertz technology and applications
1.67
article

Research on Non-Destructive Quality Detection of Sunflower Seeds Based on Terahertz Imaging Technology

Yuying Jiang, Hongyi Ge, Yuan Zhang, Heng Wang, Chunyan Guo, Wenhui Zhou
article en
8 citations

Abstract

The variety and content of high-quality proteins in sunflower seeds are higher than those in other cereals. However, sunflower seeds can suffer from abnormalities, such as breakage and deformity, during planting and harvesting, which hinder the development of the sunflower seed industry. Traditional methods such as manual sensory and machine sorting are highly subjective and cannot detect the internal characteristics of sunflower seeds. The development of spectral imaging technology has facilitated the application of terahertz waves in the quality inspection of sunflower seeds, owing to its advantages of non-destructive penetration and fast imaging. This paper proposes a novel terahertz image classification model, MobileViT-E, which is trained and validated on a self-constructed dataset of sunflower seeds. The results show that the overall recognition accuracy of the proposed model can reach 96.30%, which is 4.85%, 3%, 7.84% and 1.86% higher than those of the ResNet-50, EfficientNeT, MobileOne and MobileViT models, respectively. At the same time, the performance indices such as the recognition accuracy, the recall and the F1-score values are also effectively improved. Therefore, the MobileViT-E model proposed in this study can improve the classification and identification of normal, damaged and deformed sunflower seeds, and provide technical support for the non-destructive detection of sunflower seed quality.

FoodsVol. 13(17)
Henan University of Technology (CN), Henan Provincial Eye Hospital (CN)
National Natural Science Foundation of China, Natural Science Foundation of Henan Province
Industry, innovation and infrastructure
Openalex Percentile: Top 16%
Terahertz technology and applications
1.67
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