一种基于YOLOX_s的尾矿库潜在滑移面动态定位技术

    A dynamic positioning technology for potential slip surfaces in tailings ponds based on YOLOX_s

    • 摘要: 尾矿库边坡稳定性监测与潜在滑移面精准定位是矿山安全生产的关键环节。传统滑移面定位方法存在数据连续性差、时空异质性捕捉能力不足、对复杂工况(如渗流-应力耦合)适应性弱等问题,难以满足动态实时预警需求。为此,提出一种基于YOLOX_s的尾矿库潜在滑移面动态定位技术。在多源数据融合层面,构建了统一的时序数值型、空间分布型及视觉型监测数据编码框架,引入注意力机制进行动态加权融合,生成了能够综合反映滑移面时空异质性特征的特征图,从根本上解决了多源异构数据的有效整合与深度利用难题。在动态定位模型层面,首次将轻量级目标检测模型YOLOX_s引入尾矿库滑移面定位领域,利用其CSPDarknet主干网络与空间金字塔池化结构,自适应提取多尺度通道与空间特征,显著增强了对滑移面模糊边界及小尺度演化特征的识别能力。在工程适用性层面,通过端到端的深度学习架构,集成了数据融合、特征提取与定位回归,实现了滑移面位置的实时、自动化解译。为验证所提方法的有效性,以某实际尾矿库工程为案例进行测试分析。实例测试表明,该技术的动态空间定位熵低于0.5,时空一致性指数高于0.95,能够准确、稳定地定位尾矿库潜在滑移面,适用于长期安全监测,可为提升尾矿库安全监测预警的实时性与准确性提供新的有效途径。

       

      Abstract: Monitoring the stability of tailings pond slopes and accurately locating potential slip surfaces are key aspects of mine safety production. The traditional sliding surface positioning method has problems such as poor data continuity, insufficient ability to capture spatiotemporal heterogeneity, and weak adaptability to complex working conditions(such as seepage stress coupling), making it difficult to meet the requirements of dynamic real-time warning. Therefore, a dynamic positioning technology for potential slip surfaces in tailings ponds based on YOLOX_s is proposed. At the level of multi-source data fusion, a unified encoding framework for time-series numerical, spatial distribution, and visual monitoring data has been constructed. Attention mechanism is introduced for dynamic weighted fusion, generating feature maps that can comprehensively reflect the spatiotemporal heterogeneity characteristics of slip surfaces. This fundamentally solves the problem of effective integration and deep utilization of multi-source heterogeneous data. At the level of dynamic positioning models, the lightweight object detection model YOLOX has been introduced for the first time into the field of tailings pond slip surface localization. By utilizing its CSPDarknet backbone network and spatial pyramid pooling structure, it adaptively extracts multi-scale channels and spatial features, significantly enhancing its ability to recognize fuzzy boundaries and small-scale evolution features of slip surfaces. At the engineering applicability level, through an end-to-end deep learning architecture, data fusion, feature extraction, and localization regression are integrated to achieve real-time and automated interpretation of slip surface positions. To verify the effectiveness of the proposed method, a practical tailings pond project is used as a case study for testing and analysis. Case tests have shown that the dynamic spatial positioning entropy of this technology is less than 0.5, and the spatiotemporal consistency index is higher than 0.95. It can accurately and stably locate potential slip surfaces in tailings ponds and is suitable for long-term safety monitoring. It can provide a new effective way to improve the real-time and accuracy of tailings pond safety monitoring and early warning.

       

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