食品科学 ›› 2026, Vol. 47 ›› Issue (9): 63-74.doi: 10.7506/spkx1002-6630-20251105-024

• 基础研究 • 上一篇    下一篇

基于轻量化SCFL-YOLO模型的鸡爪去骨部位图像分割技术

赵煜,陈鑫   

  1. (上海海洋大学工程学院,上海 201306)
  • 出版日期:2026-05-15 发布日期:2026-06-03
  • 基金资助:
    上海市高校新进教师培训及科研启动项目(A1-2035-14-0010-31); 工业机器人在食品加工装备中的创新设计技术咨询项目(D-8006-25-0004)

Image Segmentation Technique for Chicken Feet Deboning Areas Based on the Lightweight SCFL-YOLO Model

ZHAO Yu, CHEN Xin   

  1. (College of Engineering Science and Technology, Shanghai Ocean University, Shanghai 201306, China)
  • Online:2026-05-15 Published:2026-06-03

摘要: 为了在鸡爪智能化去骨加工过程中实现去骨部位的实时检测,针对在检测过程中因鸡爪去骨部位形态弯曲、边缘特征与背景相似导致模型分割检测效果不佳;现有模型计算量和参数量较高,难以适用于边缘计算受限设备的实时检测等问题,本研究提出一种基于YOLOv11n-seg改进的轻量化分割检测模型SCFL-YOLO。首先通过融合StarNet轻量化网络结构提高效率,其次在C2PSA中引入DynamicTanh激活函数提升特征表达能力,然后在颈部网络中以融合的新卷积FPConv替代C3K2原卷积,构建FPC3K2结构,实现轻量化并增强多尺度边缘特征提取,最后构造全新的轻量级共享卷积预测定位质量分割检测头LSCPLQS,实现对鸡爪不同去骨部位的多尺度分割与检测。结果表明,SCFL-YOLO模型检测精度、分割精度和推理帧率分别达到97.5%、94.8%、180.8 帧/s,与基础模型相比,其参数量、计算量和模型内存占用量分别减少了40.3%、28.4%、39.7%,能有效分割识别鸡爪爪掌和跗跖骨。SCFL-YOLO轻量化分割检测模型能够提高分割和检测精度的同时减少计算开销,可降低鸡爪去骨工艺的复杂度并为后续鸡爪去骨智能化设备提供视觉支持。

关键词: 鸡爪去骨;检测与分割;轻量化;自动化;深度学习

Abstract: To achieve real-time detection of deboning locations during intelligent chicken feet deboning, this study addresses challenges such as poor segmentation and detection due to the curved morphology of deboning areas and the similarity between edge features and the background, as well as the high computational load and parameter count of existing models that hinder real-time detection on edge computing devices with limited capabilities. We proposed an improved lightweight segmentation and detection model based on YOLOv11n-seg, SCFL-YOLO. First, a fused lightweight StarNet architecture was adopted to improve the efficiency. Second, the DynamicTanh activation function was introduced into C2PSA to enhance feature representation. Third, in the neck network, the original convolution in C3K2 was replaced by a new fused convolution (FPConv) to construct the FPC3K2 module, thereby reducing model complexity while strengthening multi-scale edge feature extraction. Finally, a novel lightweight shared convolutional prediction head, LSCPLQS, was designed to enable multi-scale segmentation and detection of different deboning regions of chicken feet. Experimental results showed that SCFL-YOLO achieved a detection accuracy of 97.5%, a segmentation accuracy of 94.8%, and an inference speed of 180.8 fps. Compared with the baseline model, the parameter count, computational cost, and model memory footprint of SCFL-YOLO were reduced by 40.3%, 28.4%, and 39.7%, respectively, enabling effective segmentation and recognition of the claw pad and tarsometatarsal bone. Overall, SCFL-YOLO reduces computational complexity while maintaining high segmentation and detection performance, which can simplify the chicken feet deboning process and provide robust visual support for intelligent deboning equipment.

Key words: chicken feet deboning; detection and segmentation; lightweight; automation; deep learning

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