基于增量学习优化的煤堆体积测量算法研究

Coal pile volume measurement method based on incremental learning optimization

  • 摘要: 【目的及方法】在大型煤矿储煤场中,煤堆数量众多,其表面结构复杂且形状不规则,导致基于传统人工的煤堆体积测量方法出现实施困难且准确度不高的问题。为此,提出了一种增量学习优化的煤堆体积测量算法。该方法利用激光雷达对不规则煤堆表面进行扫描,以一定的间距获取一系列覆盖煤堆表面三维点云数据,而后结合Delaunay三角网划分算法对点云数据进行处理,并通过增量学习算法自动调整Delaunay三角网的密度和分布,以适应煤堆表面的复杂性,从而实现煤堆的三维模型的重构和体积测量,确保了三维模型的完整性和体积测量的准确性。【结果及结论】为了验证该方法的有效性,利用模拟煤堆点云数据对煤堆体积测量精度进行了测试,测试结果表明,该方法借助增量学习提高了Delaunay三角网划分的品质,显著增强了煤堆体积测量的准确性和可靠性。

     

    Abstract: In large coal mine stockyards, the presence of numerous coal piles with complex surface structures and irregular shapes makes traditional manual methods for measuring coal pile volume difficult to implement and often inaccurate.To address this issue, an incremental learning-optimized coal pile volume measurement algorithm is proposed.The method uses LiDAR to scan the irregular surfaces of coal piles, acquiring a series of three-dimensional point cloud data covering the surfaces at specific intervals.The Delaunay triangulation algorithm is then adopted to process the point cloud data, while an incremental learning algorithm automatically adjusts the density and distribution of the triangulation to adapt to the complexity of the coal pile surfaces.This enables the reconstruction of three-dimensional models of the coal piles and accurate volume measurement, ensuring the completeness of the 3D models and the precision of the volume calculations.To validate the effectiveness of this method, simulated coal pile point cloud data were used to test the accuracy of the volume measurements.The test results demonstrate that this approach enhances the quality of Delaunay triangulation through incremental learning, significantly improving the accuracy and reliability of coal pile volume measurements.

     

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