点云
激光雷达
计算机科学
数据收集
机器人
实时计算
计算机视觉
目视检查
建筑信息建模
数据质量
测距
人工智能
点(几何)
质量(理念)
全站仪
启发式
云计算
激光扫描
几何数据分析
数据采集
移动机器人
航测
楼宇自动化
机器人学
参考数据
模拟
空间分析
作者
Yi Tan,Zihong Wen,Yuzhe Chen,Ting Deng,Hongzhe Yue,Dawei Hao,Qian Wang
标识
DOI:10.70401/jbde.2025.0019
摘要
Indoor geometric quality inspection plays a crucial role in construction quality control. Light detection and ranging (LiDAR) can obtain point cloud data of the indoor environments in full range, which then can be utilized to efficiently extract geometric features of building elements for inspection. However, existing data collection of indoor environments using LiDAR is still manually planned and implemented, which is quite time-consuming as the scanning space is usually unknown and the movability of equipment is limited. Therefore, this paper proposes an automated approach for indoor geometric quality inspection data collection based on Building Information Model (BIM) and quadruped robot equipped with LiDAR. First, BIM with accurate geometric and semantic information of building is integrated with heuristic algorithm to automate scan planning, including scan stations and order. Second, Simultaneous Localization and Mapping (SLAM) integrates with BIM is equipped into a quadruped robot to achieve automated data collection capability. Finally, an intelligent execution module for scanning point cloud data in indoor environments is introduced. The proposed approach is validated in real indoor environments. Compared with traditional data collection methods, the experiment results show that the proposed approach can save 42% of scanning time, and the scanned point cloud data has better quality and enough density, which significantly improves the efficiency of inspection data collection for indoor geometric quality management. By unifying BIM-driven planning, SLAM-based localization, and quadruped robot mobility into a single framework, this study introduces a novel approach for large-scale automated indoor inspection, with attention to connected areas to ensure continuity across multiple spaces.
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