绿色循环经济下煤矿机械装备再制造技术:应用与探索

Remanufacturing technology of coal mining equipment under green circular economy: application and exploration

  • 摘要: 为应对煤矿行业资源高消耗与生态环境高负荷的双重挑战,基于绿色循环经济理论框架,聚焦煤矿机械装备再制造技术体系,系统探究其在资源循环利用与环境负荷削减中的技术路径与实践价值,为煤矿产业绿色转型提供技术支撑。研究采用文献计量分析与系统综述相结合的方法,全面梳理了再制造技术在煤矿机械装备中的应用现状与发展趋势,创新性地将绿色循环经济理念贯穿于煤矿机械装备再制造的各个环节,系统评估了其经济效益和环境效益。通过构建涵盖拆解、清洗、检测、成型与修复等完整工艺流程的再制造技术框架,揭示了再制造过程对装备服役周期延拓、资源再利用率提升、能耗与污染物排放强度降低等方面的协同效应。同时,针对刮板输送机、采煤机和液压支架等关键装备的典型再制造实践进行分析验证,综合评估了其资源节约率、能源利用效率及环境负荷削减成效。研究表明,标准化再制造工艺通过关键部件循环路径优化,可提升煤矿机械材料再生效率,降低全生命周期能耗与污染排放,实现经济环境效益协同优化。在此基础上,进一步展望了绿色循环经济背景下煤矿机械装备再制造的发展前景。从构建覆盖全生命周期的再制造产业链、引入可持续性评估机制、拓展再制造适用装备范围以及推动数据驱动的智能化再制造等方面,探讨了其未来的技术演进方向与系统提升路径。

     

    Abstract: To confront the dual challenges of excessive resource consumption and substantial ecological pressure in the coal mining industry, a remanufacturing technology system for coal mining machinery and equipment is established within the theoretical framework of the green circular economy. The technical pathways and practical significance of remanufacturing in promoting resource recycling and reducing environmental load are systematically investigated, providing essential technological support for the green transformation of the coal mining sector. Through a combination of bibliometric analysis and systematic review, current applications and developmental trends of remanufacturing technologies in coal mining equipment are comprehensively examined, with the green circular economy concept innovatively integrated into all stages of the remanufacturing process. Economic and environmental benefits are systematically evaluated through the construction of a complete remanufacturing technical framework encompassing disassembly, cleaning, inspection, repair, and reshaping processes, which demonstrates synergistic effects in extending equipment service life, improving resource reuse rates, and reducing energy consumption and pollutant emissions. Typical remanufacturing practices involving key equipment such as armored face conveyors, shearers, and hydraulic supports are analyzed and validated, with comprehensive assessments of resource conservation efficiency, energy utilization effectiveness, and environmental load reduction performance. Research indicates that standardized remanufacturing processes optimize recycling pathways for critical components to enhance material regeneration efficiency, reduce full lifecycle energy consumption and pollution emissions, and achieve coordinated optimization of economic and environmental benefits. Future development prospects are further explored, focusing on establishing comprehensive lifecycle remanufacturing industrial chains, implementing sustainability assessment mechanisms, expanding applicable equipment categories, and advancing data-driven intelligent remanufacturing technologies within the context of green circular economy principles.

     

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