Enhanced Tilapia Pathology Detection via Dense-Yolov11 with Attention Mechanisms

Aquaculture faces significant economic losses due to fish diseases, necessitating efficient and accurate early detection methods.This study develops an enhanced YOLOv11-based framework for tilapia disease detection using the Kaggle "Identifying Disease in Nile Tilapia" dataset.The baseline YOLOv11 model achieved P=92.7, mAP=85.2,R=90.3, and F1=88.8.We integrated DenseNet to improve feature reuse and compared CBAM with ECAAttention mechanisms.The optimized model demonstrates significant performance gains: mAP50 increased by 4.3% to 94.6%, with F1-score reaching 91.4%.Notably, it achieves 98.7% precision in eye abnormality detection (8% bounding box accuracy improvement) and 96.3% mAP50 for gill lesions.Detection accuracies for fin and body surface abnormalities improved by 10.6% and 8.7% respectively.The cross-layer feature fusion technique effectively addresses feature attenuation in traditional models when processing fine pathological features (eyes/gill filaments), demonstrating the robustness of dense connections in complex backgrounds.Final metrics show 93.9% accuracy (Box(P)) and 89.0%recall (R).This work advances aquaculture diagnostics through algorithmic innovation, shifting from passive treatment to active prevention via early pathological feature analysis.The proposed method provides a highprecision solution with substantial industrial application potential.

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Publication Details

Journal
Research Review
Published
2025-08-04
DOI
https://doi.org/10.52845/cs/2025-5-4-31
Primary Topic
Digital Imaging for Blood Diseases
Type
article
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article

Enhanced Tilapia Pathology Detection via Dense-Yolov11 with Attention Mechanisms

Chenhui Zhou
Research Review
Digital Imaging for Blood Diseases
article

Enhanced Tilapia Pathology Detection via Dense-Yolov11 with Attention Mechanisms

Chenhui Zhou
article en

Abstract

Aquaculture faces significant economic losses due to fish diseases, necessitating efficient and accurate early detection methods.This study develops an enhanced YOLOv11-based framework for tilapia disease detection using the Kaggle "Identifying Disease in Nile Tilapia" dataset.The baseline YOLOv11 model achieved P=92.7, mAP=85.2,R=90.3, and F1=88.8.We integrated DenseNet to improve feature reuse and compared CBAM with ECAAttention mechanisms.The optimized model demonstrates significant performance gains: mAP50 increased by 4.3% to 94.6%, with F1-score reaching 91.4%.Notably, it achieves 98.7% precision in eye abnormality detection (8% bounding box accuracy improvement) and 96.3% mAP50 for gill lesions.Detection accuracies for fin and body surface abnormalities improved by 10.6% and 8.7% respectively.The cross-layer feature fusion technique effectively addresses feature attenuation in traditional models when processing fine pathological features (eyes/gill filaments), demonstrating the robustness of dense connections in complex backgrounds.Final metrics show 93.9% accuracy (Box(P)) and 89.0%recall (R).This work advances aquaculture diagnostics through algorithmic innovation, shifting from passive treatment to active prevention via early pathological feature analysis.The proposed method provides a highprecision solution with substantial industrial application potential.

Research Review
Zero hunger
Openalex Percentile: Top 82%
Digital Imaging for Blood Diseases
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