【摘要】 钨作为关键战略金属，广泛应用于国防、新能源等领域。随着全球资源短缺与需求增长矛盾加剧，传统开采难以满足需求，钨资源循环利用成为保障可持续供应的核心路径，兼具经济价值与生态意义。钨二次资源回收技术可分为化学冶金法和物理冶金法，其中熔盐电解等新兴技术展现出高效清洁循环潜力，但仍面临回收效率低、能耗高及污染控制等瓶颈。针对这些问题，文章提出多维度发展策略：重点突破熔盐电解技术的工程化应用，开发低能耗高效回收体系；强化政策扶持与国际技术协作，构建标准化回收网络；推进智能化分选与自动化提纯装备研发，提升全流程技术能效。通过技术创新与产业协同，钨资源循环体系有望实现规模化应用，可缓解资源约束压力，还将推动全球钨产业绿色转型，为资源可持续利用提供实践范本。更多还原

【Abstract】 Tungsten, as a critical strategic metal, is widely used in defence, new energy, and other fields. With the intensifying contradiction between global resource shortage and growing demand, traditional mining methods struggle to meet requirements. Consequently, tungsten resource recycling has become a core pathway to ensure sustainable supply, integrating economic value with ecological significance. Secondary tungsten resource recovery technologies can be categorized into chemical metallurgy and physical metallurgy methods. Emerging technologies like molten salt electrolysis demonstrate potential for efficient and clean recycling, yet they still face bottlenecks such as low recovery efficiency, high energy consumption, and pollution control challenges. To address these issues, multidimensional development strategies were proposed, including prioritizing breakthroughs in the engineering application of molten salt electrolysis and developing low-energy and high-efficiency recovery systems; strengthening policy support and international technical collaboration to establish standardized recycling networks; advancing intelligent sorting and automated purification equipment to enhance the technical efficiency of the entire process. Through technological innovation and industrial synergy, the tungsten resource recycling system is expected to achieve large-scale application. This will not only alleviate resource constraints but also drive the global tungsten industry’ s green transformation, providing a practical paradigm for sustainable resource development.更多还原