基于YOLO11-SDP模型的饰面人造板表面缺陷检测研究
Surface Defect Detection of Surface-Decorated Wood-Based Panels Based on YOLO11-SDP Model
- 2026年40卷第2期 页码:88-97
DOI: 10.12326/j.2096-9694.2025128
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1.中国林业科学研究院木材工业研究所,北京 100091
2.中国林业科学研究院木材工业研究所林草装备研究开发中心, 北京 100091
3.苏州华翔木业机械有限公司,江苏苏州 215000
收稿:2025-11-22,
修回:2026-05-12,
录用:2026-05-12,
纸质出版:2026-03-30
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饰面人造板作为家居行业的核心原材料 ,其表面缺陷检测是质量管控的关键环节。当前基于机器视觉与YOLO系列深度学习检测方法已得到广泛应用,但在精确率、召回率等关键指标上仍有提升空间,且在设备资源受限场景下,难以兼顾推理速度与检测性能。为进一步优化模型综合性能,将其应用于饰面人造板表面缺陷检测场景,研究提出YOLO11-SDP检测模型,通过采用数据集Mosaic增强、BiFPN模块替换原有FPN模块、损失函数中引入尺度权重因子等3项组合策略对原有模型进行改进。试验结果表明,改进模型YOLO11-SDP精确率达98.0%、召回率达91.3%,较原始模型YOLO11s分别提升6.8%和6.1%。3项改进措施可有效增强模型对小目标的检测能力,提升模型泛化性与鲁棒性;在综合检测性能提升与资源消耗增加的权衡下,尺度权重因子的优化效果优于BiFPN模块,优于Mosaic增强。同时,YOLO11-SDP模型推理速度满足工业实时检测要求,可用于饰面人造板生产中干花、湿花、污斑、裂缝等常见缺陷的在线检测,为家居建材高质量发展提供技术支撑。
Surface-decorated wood-based panels serve as a core raw material in the furniture industry
and surface defect detection is a critical step in quality control. Current detection methods commonly adopt YOLO-based machine vision
yet their performance in terms of precision and recall leave room for improvement. In resource-constrained deployment scenarios
the balance between inference speed and detection accuracy remains unresolved. To enhance the overall performance of existing detection models and apply the algorithm to surface defect detection of decorated wood-based panels
this study proposed an improved YOLO11-SDP (You Only Look Once11-Surface Decorated Panels) detection model. The original detection model was improved via three complementary measures: performing Mosaic augmentation on the dataset
replacing the original Feature Pyramid Network (FPN) module with a BiFPN module
and introducing a scale weight factor into the loss function. Experimental results showed that the improved model achieved a precision of 98.0% and a recall of 91.3%. Compared with the original model
the precision and recall rate were increased by 6.8% and 6.1%
respectively. These three enhancements significantly improved the model's capacity to detect small targets
yielding greater generalization and robustness. When balancing the performance gains against the increased computational cost
the scale weight factor was proved superior to BiFPN
followed by Mosaic augmentation. Furthermore
the detection speed satisfied real-time processing requirements. Consequently
the YOLO11-SDP model was well-suited for the online detection of common defects—including frosting mark
water mark
spots
and crack—in the manufacturing of surface decorated wood-based panels
thereby providing technical support for the high‑quality development of home furnishing and building materials.
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