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昆明冶金职业大学学报 ›› 2026, Vol. 42 ›› Issue (1): 17-.DOI: 10.3969/j.issn.1009-0479.2026.01.003

• 资源开发与测绘 • 上一篇    下一篇

“双碳” 机遇下中国绿色矿山发展现状研究

姚永仲1,徐兴卫1,马宏彪2   

  1. (1.昆明冶金高等专科学校建筑工程学院,云南昆明650033;2.云南化钧新材料科技有限公司,云南昆明650033)
  • 出版日期:2026-02-11 发布日期:2026-06-03
  • 作者简介:姚永仲(1973-),男,云南腾冲人,工学硕士,岩土高级工程师,主要从事地质工作及建筑材料研究工作。
  • 基金资助:
    云南省技术委托开发重点项目“铜、铁选矿、冶炼尾渣制作绿色高强混凝土” (2023530101000771);云南省技术委托开发重点项目“永平县废弃物资源化协同处置与产业联动项目”(2025530103001025)。

DevelopmentStatusofGreenMinesinChinaUnderthe#br# CarbonPeakandCarbonNeutralityOpportuniti#br#

YAOYongzhong1,XUXingwei1,MAHongbiao2   

  1. (1.FacultyofArchitecturalEngineering,KunmingMetallurgyCollege,Kunming650033,China;2.YunnanHuajunNewMaterialTechnologyCo.,Ltd.,Kunming650033,China)
  • Online:2026-02-11 Published:2026-06-03

摘要: 在“碳达峰、碳中和”目标与生态文明建设协同推进的战略背景下,矿业作为高耗能高排放行业,其低碳转型是实现双碳目标的关键环节。本研究系统剖析中国绿色矿山建设现状与演进脉络,探索矿业深度脱碳路径,通过政策文本解析与典型案例实证,梳理绿色矿山标准体系的发展历程,并运用生命周期评价法构建覆盖“勘探—开采—加工—修复”全链条的碳足迹核算模型。研究创新性提出“资源-能源-碳汇”三维协同技术框架,融入智能分选、数字孪生等新质生产力要素,设计“绿色开采+清洁能源替代+碳封存利用”一体化转型模式。结果表明:1)我国已初步建立多层次绿色矿山政策体系,但区域经济发展失衡导致实践成效存在显著差异,制约碳达峰进程;2)清洁能源替代(光伏、绿氢)与固废循环利用可使矿山碳排放强度降低30%以上,是碳中和前期的核心减碳路径;3)CCUS技术作为深度脱碳关键支撑,当前面临成本高、规模化不足的瓶颈,需通过绿氢耦合与碳市场联动破解。基于上述结论,建议完善碳足迹核算国家标准、建立CCUS财税-碳市场联动机制、加速智能技术与矿业场景深度融合,构建“政策引导—技术驱动—市场调节”的绿色矿山发展新范式,为我国矿业碳达峰、碳中和目标实现提供技术支撑与制度保障,也为全球矿业低碳转型提供中国方案。

关键词: 绿色矿山, CCUS, 新质生产力, 碳达峰, 碳中和

Abstract: Against the strategic backdrop of advancing both the "carbon peak and carbon neutrality" goals and ecological civilization construction, the mining industry as a high-energy-consumption and high-emission sector must undergo a low-carbon transformation that is crucial to achieving the dual carbon targets. This study systematically analyzes the current status and evolutionary context of green mine construction in China, exploring pathways for deep decarbonization of the mining industry. Through policy text analysis and typical case studies, it reviews the development of the green mine standard system and constructs a full-chain carbon footprint accounting model covering the "exploration-mining-processing-restoration" lifecycle using the Life Cycle Assessment (LCA) method. The research innovatively proposes a three-dimensional collaborative technical framework of "resources-energy-carbon sink", integrates new quality productivity elements such as intelligent sorting and digital twins, and designs an integrated transformation model comprising "green mining+clean energy substitution+carbon capture, utilization, and storage". TheResults show that: 1) China has initially established a multi-level green mine policy system, but regional economic development imbalances lead to significant differences in implementation outcomes, restricting the carbon peak process; 2) clean energy substitution (e.g., photovoltaic, green hydrogen) and solid waste recycling can reduce the mine carbon emission intensity by more than 30%, serving as core decarbonization pathways before carbon neutrality; 3) as a key support for deep decarbonization, CCUS technology currently faces bottlenecks of high costs and insufficient large-scale deployment, which need to be overcome through green hydrogen coupling and carbon market linkage mechanisms. Based on these findings, the study suggests improving national standards for carbon footprint accounting, establishing a fiscal-carbon market linkage mechanism for CCUS, and accelerating the deep integration of intelligent technologies with mining scenarios, thereby building a new green mine development paradigm driven by "policy guidance, technology impetus, and market regulation". The research results not only provide technical support and institutional guarantees for China's mining industry to achieve carbon peak and carbon neutrality, but also offer a Chinese solution for the global low-carbon transformation of the mining industry.

Key words: greenmines, CCUS, newqualityproductivity, carbonpeak, carbonneutralit

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