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岩石力学的数值计算与人工智能融合研究

Integration of numerical modeling and artificial intelligence in rock mechanics

  • 摘要: 深部资源开发与矿山智能化建设对岩石力学的精细表征、高效模拟和可靠预测提出了更高要求。数值计算凭借物理力学原理明确的优势, 已成为岩石力学分析的核心工具。数值计算理论的长足发展是解决岩石工程难题最有希望的途径之一。然而, 现有数值计算方法在计算效率与工程适应性上仍存在诸多局限, 制约了其在复杂岩石工程中的深入应用。人工智能浪潮的兴起促进数据驱动的研究方法在岩石力学领域受到广泛关注。人工智能能够从试验、监测与仿真数据中挖掘复杂非线性关系, 为岩体参数反演、破坏模式识别和工程响应预测提供新手段; 但其物理可解释性不足, 且对大规模高质量数据依赖较强, 与岩石工程数据稀缺、现实工况的复杂性仍不匹配。因此, 融合数值模拟与人工智能优势, 构建物理机制约束与数据驱动的协同研究, 是岩石力学发展的重要方向之一。本文系统梳理了数值模拟、人工智能及二者融合技术在岩石力学领域的研究进展, 阐述了从辅助互补、协同增强到基于数字孪生虚实融合的演化脉络, 重点分析了该技术在跨尺度参数识别、破坏过程模拟、灾害预警、装备优化及支护设计等典型场景中的应用现状。最后, 深入探讨了当前融合方法普遍存在的共性挑战, 并展望了未来发展方向, 为煤炭等能源领域重大岩石工程的安全高效建设提供参考。

     

    Abstract: Deep resource exploitation and intelligent mine construction have placed higher demands on the refined characterization, efficient simulation, and reliable prediction of rock mechanics. Numerical modeling, grounded in explicit physical and mechanical principles, has become a core tool for rock mechanics analysis, and advances in numerical theory offer one of the most promising routes for addressing challenging problems in rock engineering. However, existing numerical methods are still limited by computational efficiency and engineering applicability, which restricts their in-depth application to complex rock engineering. The rapid development of artificial intelligence has sparked considerable interest in data-driven research methods in rock mechanics. Artificial intelligence can extract complex nonlinear relationships from experimental, monitoring, and simulation data, providing new tools for rock mass parameter inversion, failure mode identification, and engineering response prediction. However, its insufficient physical interpretability and strong dependence on large-scale, high-quality datasets remain inconsistent with the data scarcity and complex in-situ conditions of rock engineering. Therefore, integrating the strengths of numerical simulation and artificial intelligence to establish a synergistic framework driven by physical-mechanism constraints and data-driven learning has become an important direction for advancing rock mechanics. This paper systematically reviews recent advances in numerical simulation, artificial intelligence, and their integration in rock mechanics, clarifies the evolution from auxiliary complementarity and synergistic enhancement to digital-twin-based cyber-physical integration, and focuses on applications in cross-scale parameter identification, failure process simulation, hazard early warning, equipment optimization, and support design. Finally, common challenges in current integration methods are discussed, and future research directions are outlined with the aim of providing references for the safe and efficient construction of major rock engineering projects in coal and other energy sectors.

     

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