2017年 第3卷 第4期
《工程（英文）》 >> 2017年 第3卷 第4期 doi: 10.1016/J.ENG.2017.04.017
深部开采的一些挑战
1. University of Minnesota, Minneapolis, MN 55455, USA
2. Itasca International Inc., Minneapolis, MN 55401, USA
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摘要
持续增长的全球矿产供给对于满足迅速增长的世界人口的需求和期望是必不可少的。这意味着要向更深处开采。由设备供应商通过自持久R&D 研发的自动开采系统，减少了矿工暴露于恶劣的工作环境并增加了安全性。为确定矿产经济地被开采出来的深度，安全性的增长在于“地面控制”和岩石力学。尽管第二次世界大战以来，为将力学应用在采矿设计上，研究者付出了许多重要的努力，但均出现过技术和组织上的障碍。相较于大多数其他工科学科所遇到的典型工程材料，原位岩石是更复杂的一种。几千年来，采矿工程在设计上大量地依赖于经验方法。随着日益向矿山深部探索，这些方法不再适用于解决21 世纪的挑战。2008 年综合岩体模型（SRM）的发展给研究者提供了分析各向异性和不连续性岩体变形行为的能力——这些属性于1966 年被国际岩石力学学会（ISRM）的主席和创始人Leopold Müller 描述为原位岩石的本质特征。运用SRM 在大尺度采矿作业数值模拟（如崩落法）上的最新进展揭露了未预料到的岩石的变形行为。大量的平行计算和云计算技术的应用提供了许多重要机会，例如，评价数值预测中的不确定性；建立现用于岩石工程中的经验法则的力学基础及其在现有经验之上的岩体行为预测的正确性；还有在深部开采的优化设计中采用离散元法。首次，采矿和岩石工程将有其自有的基于力学的“实验室”。这有望成为在未来深部高效开采设计中的主要手段。通过在有80 多年历史的塔斯马尼亚Mount Lyell 铜矿应用采矿法反演，本文以演示实验室中DEM 和SRM 程序应用的讨论作为结束。
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