用视觉与点云融合技术自动监控工地吊装,实时预警危险区域人员。
Learning-based safety lifting monitoring system for cranes on construction sites
- 结合2D图像检测与3D点云,精准定位吊装模块和工人位置。
- 定位误差小于1.6米(模块)和0.8米(人员),报警准确率高。
- 减少现场信号员依赖,适合智能建造与安全监控场景。
工地吊装作业常存安全隐患,尤其在模块化集成建筑(MiC)吊装中因重量大、体积大更易引发事故,威胁人员安全并造成构件损坏。为降低此类风险,本文设计了一套基于学习的自动化吊装安全监控算法流程,并在真实工地部署。研究构建了包含1007对图像-点云数据的专用数据集(涵盖37次MiC吊装)。采用先进目标检测模型实现对MiC和人员的二维(2D)自动检测,再融合2D检测结果与点云信息,精确获取其三维(3D)位置。系统可自动触发警报,通知危险区域人员,同时向起重机操作员实时提供吊装状态与早期预警。整个监控过程显著减少人工干预,几乎无需现场信号员。定量分析显示,该算法在MiC和人体感知上的平均距离误差分别为1.5640米和0.7824米。实际应用表明,系统在真实工地环境下有效执行了安全风险监控与报警功能,仅需少量人工辅助。
原文摘要 · Abstract (English)
Lifting on construction sites, as a frequent operation, works still with safety risks, especially for modular integrated construction (MiC) lifting due to its large weight and size, probably leading to accidents, causing damage to the modules, or more critically, posing safety hazards to on-site workers. Aiming to reduce the safety risks in lifting scenarios, we design an automated safe lifting monitoring algorithm pipeline based on learning-based methods, and deploy it on construction sites. This work is potentially to increase the safety and efficiency of MiC lifting process via automation technologies. A dataset is created consisting of 1007 image-point cloud pairs (37 MiC liftings). Advanced object detection models are trained for automated two-dimensional (2D) detection of MiCs and humans. Fusing the 2D detection results with the point cloud information allows accurate determination of the three-dimensional (3D) positions of MiCs and humans. The system is designed to automatically trigger alarms that notify individuals in the MiC lifting danger zone, while providing the crane operator with real-time lifting information and early warnings. The monitoring process minimizes the human intervention and no or less signal men are required on real sites assisted by our system. A quantitative analysis is conducted to evaluate the effectiveness of the algorithmic pipeline. The pipeline shows promising results in MiC and human perception with the mean distance error of 1.5640 m and 0.7824 m respectively. Furthermore, the developed system successfully executes safety risk monitoring and alarm functionalities during the MiC lifting process with limited manual work on real construction sites.
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