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    基于知识图谱的3D打印技术在矿业工程中的研究进展与热点分析

    Research progress and hotspot analysis of 3D printing technology in mining engineering based on knowledge graph

    • 摘要: 近年来,3D打印技术逐渐被应用于矿业工程相关岩石力学研究当中,为复杂煤岩体结构的重构与力学分析提供新的技术手段。基于CNKI与Web of Science数据库中2015—2025年相关中英文文献,采用文献计量与可视化分析方法,对3D打印技术在矿业工程相关岩石力学领域的研究进展与热点进行系统梳理。通过对发文特征、作者与机构合作关系、国家分布以及关键词共现与聚类结果的分析,揭示该领域的研究结构及演化特征。研究表明:相关研究总体呈持续发展并逐步深化趋势,研究内容由早期材料性能与打印工艺可行性探索,逐步转向复杂裂隙结构重构、煤岩体力学响应及裂纹扩展机制分析,并进一步拓展至裂隙煤岩体加载过程中的渗流与力学耦合行为研究。多尺度结构表征方法及数字图像相关、CT扫描等测试手段在该领域得到广泛应用。

       

      Abstract: In recent years, 3D printing technology has been progressively introduced into rock mechanics research related to mining engineering, thereby providing novel technical approaches for the structural reconstruction and mechanical analysis of complex coal–rock mass systems. Based on relevant Chinese and English literature published between 2015–2025 and indexed in the CNKI and Web of Science databases, a systematic review of research progress and emerging hotspots concerning the application of 3D printing in rock mechanics within mining engineering was conducted by using bibliometric analysis and visualization methods. By quantitatively analyzing publication characteristics, collaboration networks among authors and institutions, national distribution patterns, as well as keyword co-occurrence and clustering results, the underlying research structure and evolutionary trajectories of this field were comprehensively revealed. The results indicate that related studies have exhibited a sustained growth trend with progressive deepening over time. Specifically, research themes have gradually shifted from early explorations of material properties and printing process feasibility toward the reconstruction of complex jointed and fractured structures, the mechanical responses of coal–rock mass systems, and the analysis of crack initiation and propagation mechanisms. Furthermore, recent studies have increasingly extended to investigations of coupled seepage–mechanical behaviors during the loading processes of fractured coal–rock masses. In addition, multiscale structural characterization approaches, together with experimental techniques such as digital image correlation and CT scanning, have been extensively applied in this research domain.

       

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