利用三维技术优化采矿通风

P. Trybała, Simone Rigon, F. Remondino, A. Banasiewicz, Adam Wróblewski, Arkadiusz Macek, P. Kujawa, K. Romanczukiewicz, Carlos Redondo, Fran Espada
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引用次数: 0

摘要

摘要通风系统是工业设施生态系统的重要组成部分。为人类创造适当的工作环境条件至关重要,尤其是在地下矿井等存在各种气体的危险场所。由于大型矿井需要通风的空间巨大,设计和维护这样一个系统既具有挑战性,又成本高昂。为了缓解这些问题,EIT-RM 项目 VOT3D(基于三维扫描的通风优化技术)建议在地下隧道网络中进行先进的气流建模,利用计算流体动力学(CFD)模拟、现代测量和三维建模方法,逆向设计出可靠的矿井几何模型,并估算出矿井内部的三维气流场。在本文中,我们介绍了在这项任务中需要解决的难题,以及为解决这些难题而提出的工作流程。本文以波兰一个活跃的工业矿山为例,介绍了如何使用高度自动化的全套流程进行实验数据处理。报告介绍了地下移动测绘(使用无人机和手持系统)、点云处理和过滤、表面重建和 CFD 建模的发展和结果。气流场估算的详细结果显示了所提解决方案的优势,并保证了其高度的实用性。
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Optimizing Mining Ventilation Using 3D Technologies
Abstract. Ventilation systems constitute an important piece of the industrial facility ecosystems. Creating proper working environmental conditions for humans is crucial, especially in hazardous sites with presence of various gases, such as underground mines. Combined with the vast amount of space to be ventilated in large mines, designing and maintaining such a system is challenging and costly. To alleviate these issues, the EIT-RM project VOT3D (Ventilation Optimizing Technology based on 3D scanning) proposes conducting advanced airflow modeling in the underground tunnel networks, utilizing computational fluid dynamics (CFD) simulations, modern surveying and 3D modeling approaches to reverse engineer a reliable geometric model of the mine and estimate the 3D airflow field inside it. In this paper, we present the challenges to be solved in this task and the proposed workflow to address them. An example related to an active industrial mine in Poland is reported as a basis for performing experimental data processing using the full, highly automatized procedure. Developments and results of underground mobile mapping (with a drone and a handheld system), point cloud processing and filtering, surface reconstruction and CFD modeling are presented. The detailed results of airflow field estimation show the advantages of the proposed solution and promise its high practical usefulness.
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