OptiWood-YOLO: A Real-Time Defect Detection Method with a New Industrial Wood Dataset

This study presents OptiWood-YOLO, a YOLOv8n-based pipeline for automated wood-surface defect detection. Defective timber materials were obtained in collaboration with wood-processing companies, and documented image acquisition included controlled laboratory imaging. The dataset comprises 10,507 images annotated for six wood-surface inspection categories—blistering, crack, fingerjoint, planing torn, scratch, and wrinkling—and one auxiliary Objects class. We investigate preprocessing and data augmentation and compare the resulting detector with YOLOv11, faster R-CNN, and RT-DETR under a fixed image-level train/validation/test partition. The reported model-comparison values for OptiWood-YOLOv8n are precision 0.54, recall 0.47, [email protected] 0.46, and [email protected]:0.95 0.23, compared with an [email protected] of 0.45 for YOLOv11. These single-run point estimates indicate broadly comparable YOLO performance rather than statistically demonstrated superiority. The reported throughput for OptiWood-YOLOv8n was 51.30 FPS in the specified evaluation environment. Because the original image-level split does not guarantee independence of physical timber samples, and complete source and evaluation-provenance records are unavailable, the reported results should be interpreted as exploratory performance under the original partition, not as verified generalization to unseen timber samples or production lines.

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Publication Details

Journal
Forests
Published
2026-10-16
DOI
https://doi.org/10.3390/f17101232
Primary Topic
Industrial Vision Systems and Defect Detection
Type
article
Field-Weighted Citation Impact
0.00

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article

OptiWood-YOLO: A Real-Time Defect Detection Method with a New Industrial Wood Dataset

Himat Ali Shah, Elisa Saarela, Anu Kaarlela, Teemu Korkeakangas
Forests
Industrial Vision Systems and Defect Detection
article

OptiWood-YOLO: A Real-Time Defect Detection Method with a New Industrial Wood Dataset

Himat Ali Shah, Elisa Saarela, Anu Kaarlela, Teemu Korkeakangas
article en

Abstract

This study presents OptiWood-YOLO, a YOLOv8n-based pipeline for automated wood-surface defect detection. Defective timber materials were obtained in collaboration with wood-processing companies, and documented image acquisition included controlled laboratory imaging. The dataset comprises 10,507 images annotated for six wood-surface inspection categories—blistering, crack, fingerjoint, planing torn, scratch, and wrinkling—and one auxiliary Objects class. We investigate preprocessing and data augmentation and compare the resulting detector with YOLOv11, faster R-CNN, and RT-DETR under a fixed image-level train/validation/test partition. The reported model-comparison values for OptiWood-YOLOv8n are precision 0.54, recall 0.47, [email protected] 0.46, and [email protected]:0.95 0.23, compared with an [email protected] of 0.45 for YOLOv11. These single-run point estimates indicate broadly comparable YOLO performance rather than statistically demonstrated superiority. The reported throughput for OptiWood-YOLOv8n was 51.30 FPS in the specified evaluation environment. Because the original image-level split does not guarantee independence of physical timber samples, and complete source and evaluation-provenance records are unavailable, the reported results should be interpreted as exploratory performance under the original partition, not as verified generalization to unseen timber samples or production lines.

ForestsVol. 17(10)
Centria University of Applied Sciences (FI), University of Eastern Finland (FI)
European Commission
Openalex Percentile: Top 12%
Industrial Vision Systems and Defect Detection
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