Attention-Based Multi-View Fusion YOLO for Non-Destructive Pineapple Sweetness Assessment

Classifying the sweetness level of pineapples is an important part of quality control, but existing methods still face issues of subjectivity and require destructive testing. Manual assessment is often inconsistent, while refractometer measurements require cutting the fruit open. Single-view computer vision offers a non-destructive alternative, yet its performance remains limited because visual cues related to sweetness appear on different sides of the fruit. This study introduces Multi-View Fusion YOLO (MVF-YOLO), a model that combines five viewpoints (full, front, left, right, and back) through an attention mechanism to perform adaptive sweetness classification. The dataset consists of 570 pineapples with TSS/TA ratios as the ground truth, producing 2,850 images grouped into three categories: sour (TSS/TA 10–20), ideal (TSS/TA 20–30), and very sweet (TSS/TA >30). MVF-YOLO achieved an [email protected] of 82.1% and an overall accuracy of 84.2%, outperforming the single-view baseline by 14.3%. Attention weight analysis indicates that the full view contributes the most (0.267). With an inference time of 45.8 ms per fruit, the model is sufficiently efficient for use by farmers, distributors, and consumers. The results demonstrate that a multiview approach enhanced with learned attention can significantly improve sweetness classification accuracy without compromising computational efficiency.

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Publication Details

Journal
Jurnal RESTI (Rekayasa Sistem dan Teknologi Informasi)
Published
2026-04-06
DOI
https://doi.org/10.29207/resti.v10i2.7382
Primary Topic
Smart Agriculture and AI
Type
article
Field-Weighted Citation Impact
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article

Attention-Based Multi-View Fusion YOLO for Non-Destructive Pineapple Sweetness Assessment

Tri Herdiawan Apandi, Desy Triastuti, Dwi Vernanda, Aisyah Suhailla Binti Jili et al.
Jurnal RESTI (Rekayasa Sistem dan Teknologi Informasi)
Smart Agriculture and AI
article

Attention-Based Multi-View Fusion YOLO for Non-Destructive Pineapple Sweetness Assessment

Tri Herdiawan Apandi, Desy Triastuti, Dwi Vernanda, Aisyah Suhailla Binti Jili, Willy Muhammad Fauzi
article en

Abstract

Classifying the sweetness level of pineapples is an important part of quality control, but existing methods still face issues of subjectivity and require destructive testing. Manual assessment is often inconsistent, while refractometer measurements require cutting the fruit open. Single-view computer vision offers a non-destructive alternative, yet its performance remains limited because visual cues related to sweetness appear on different sides of the fruit. This study introduces Multi-View Fusion YOLO (MVF-YOLO), a model that combines five viewpoints (full, front, left, right, and back) through an attention mechanism to perform adaptive sweetness classification. The dataset consists of 570 pineapples with TSS/TA ratios as the ground truth, producing 2,850 images grouped into three categories: sour (TSS/TA 10–20), ideal (TSS/TA 20–30), and very sweet (TSS/TA >30). MVF-YOLO achieved an [email protected] of 82.1% and an overall accuracy of 84.2%, outperforming the single-view baseline by 14.3%. Attention weight analysis indicates that the full view contributes the most (0.267). With an inference time of 45.8 ms per fruit, the model is sufficiently efficient for use by farmers, distributors, and consumers. The results demonstrate that a multiview approach enhanced with learned attention can significantly improve sweetness classification accuracy without compromising computational efficiency.

Jurnal RESTI (Rekayasa Sistem dan Teknologi Informasi)Vol. 10(2)
Openalex Percentile: Top 30%
Smart Agriculture and AI
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