Tao Hongjing, Zhang Lei, Sun Zhipeng, Cui Xinchao, Yi Weixun
School of Coal Engineering, Shanxi Datong University, Datong 037000, China.
Sensors (Basel). 2025 Mar 22;25(7):1983. doi: 10.3390/s25071983.
The current methods for detecting coal gangue face several challenges, including low detection accuracy, a high probability of missed detections, and inadequate real-time performance. These issues stem from the complexities associated with diverse industrial environments and mining conditions, such as the mixing of coal gangue and insufficient illumination within coal mines. A detection model, referred to as EBD-YOLO, is proposed based on YOLOv11n. First, the C3k2-EMA module is integrated with the EMA attention mechanism within the C3k2 module of the backbone network, thereby enhancing the model's feature extraction capabilities. Second, the introduction of the BiFPN module reduces computational complexity while enriching both semantic information and detail within the model. Finally, the incorporation of the DyHead detector head further enhances the model's ability to express features in complex environments. The experimental results indicate that the precision (P) and recall (R) of the EBD-YOLO model are 88.7% and 83.9%, respectively, while the mean average precision (mAP@0.5) is 91.7%. These metrics represent increases of 3.4%, 3.7%, and 3.9% compared to those of the original model, respectively. Additionally, the frames per second (FPS) improved by 10.01%. Compared to the mainstream YOLO target detection algorithms, the EBD-YOLO detection model achieves the highest mAP@0.5 while maintaining superior detection speed. It exhibits a slight increase in computational load, despite an almost unchanged number of parameters, and demonstrates the best overall detection performance. The EBD-YOLO detection model effectively addresses the challenges of missed detections, false detections, and real-time detection in the complex environment of coal mines.
当前检测煤矸石的方法面临诸多挑战,包括检测精度低、漏检概率高以及实时性能不足。这些问题源于不同工业环境和采矿条件带来的复杂性,如煤矸石的混合以及煤矿内光照不足。基于YOLOv11n提出了一种名为EBD - YOLO的检测模型。首先,将C3k2 - EMA模块与骨干网络C3k2模块中的EMA注意力机制相结合,从而增强模型的特征提取能力。其次,引入BiFPN模块在降低计算复杂度的同时丰富了模型内的语义信息和细节。最后,并入DyHead检测头进一步增强了模型在复杂环境中表达特征的能力。实验结果表明,EBD - YOLO模型的精确率(P)和召回率(R)分别为88.7%和83.9%,而平均精度均值(mAP@0.5)为91.7%。与原模型相比,这些指标分别提高了3.4%、3.7%和3.9%。此外,每秒帧数(FPS)提高了10.01%。与主流的YOLO目标检测算法相比,EBD - YOLO检测模型在保持卓越检测速度的同时实现了最高的mAP@0.5。尽管参数数量几乎不变,但计算负载略有增加,且整体检测性能最佳。EBD - YOLO检测模型有效解决了煤矿复杂环境中的漏检、误检和实时检测挑战。