Mineral Security and Strategic Resources | 矿产安全与战略资源

📚 Mineral Security and Strategic Resources | 矿产安全与战略资源

Mineral security has emerged as one of the defining geopolitical and economic challenges of the 21st century. As the world transitions toward low-carbon technologies, the demand for critical minerals such as lithium, cobalt, and rare earth elements has surged dramatically, transforming what were once obscure commodities into strategic resources of national importance.

矿产安全已成为 21 世纪最具决定性的地缘政治与经济挑战之一。随着世界向低碳技术转型，锂、钴、稀土元素等关键矿产的需求急剧攀升，使原本不起眼的大宗商品转变为具有国家战略意义的重要资源。

1. Defining Mineral Security and Strategic Resources | 矿产安全与战略资源的定义

Mineral security refers to the ability of a country or region to secure an adequate, reliable, and affordable supply of minerals essential for its economy, national defense, and technological development. A resource becomes “strategic” when its supply can be easily disrupted and its absence would cause significant economic or military harm.

矿产安全是指一个国家或地区能够获得充足、可靠且价格可负担的矿产供应，以保障其经济、国防和技术发展的能力。当一种资源的供应容易受到干扰，且其缺失会造成重大经济或军事损害时，该资源便具有”战略性”。

Strategic minerals typically exhibit high economic importance combined with high supply risk — a framework used by the European Union and the United States to identify critical minerals.
战略矿产通常兼具高经济重要性与高供应风险——这是欧盟和美国用于识别关键矿产的评估框架。

Important strategic minerals include rare earth elements (REEs), lithium, cobalt, graphite, nickel, copper, platinum group metals, and uranium. These materials underpin sectors ranging from renewable energy and electric vehicles to defense systems and digital infrastructure.

重要的战略矿产包括稀土元素、锂、钴、石墨、镍、铜、铂族金属和铀。这些材料支撑着从可再生能源、电动汽车到国防系统和数字基础设施等各个领域。

2. Global Distribution of Strategic Minerals | 战略矿产的全球分布

The geographical concentration of mineral reserves is highly uneven, creating significant dependency relationships between nations. According to the U.S. Geological Survey, the Democratic Republic of the Congo accounts for approximately 70% of global cobalt production, while China controls roughly 60–70% of rare earth mining and over 85% of rare earth processing.

矿产储量的地理分布极不均衡，形成了国家间显著的依赖关系。根据美国地质调查局的数据，刚果民主共和国约占全球钴产量的 70%，而中国控制着约 60%–70% 的稀土开采量和超过 85% 的稀土加工能力。

Mineral	Top Producer	Share of Global Supply
Cobalt	DR Congo	~70%
Rare Earths	China	~60–70%
Lithium	Australia, Chile	~75% combined
Platinum Group	South Africa	~75%

A notable feature of strategic mineral supply chains is the separation between extraction and processing. While lithium may be mined in Australia or Chile, the refining and conversion into battery-grade materials is overwhelmingly dominated by China, giving it disproportionate leverage in the supply chain.

战略矿产供应链的一个显著特征在于开采与加工环节的分离。虽然锂可能采自澳大利亚或智利，但其精炼及转化为电池级材料的环节却压倒性地由中国主导，这赋予了中国在供应链中不成比例的话语权。

3. Supply Chain Vulnerability and the “Choke Point” Problem | 供应链脆弱性与”咽喉点”问题

A choke point in mineral supply chains is a stage of processing or transport where a single actor or corridor controls the flow of a critical material. Chinese dominance of rare earth refining — including the complex separation of lanthanides — represents the most significant choke point in the global mineral economy.

矿产供应链中的咽喉点是指加工或运输的某个环节，其中单一行为体或走廊控制着关键物料的流转。中国在稀土精炼领域的主导地位——包括复杂的镧系元素分离——构成了全球矿产经济中最关键的咽喉点。

Supply chain vulnerability is further amplified by long lead times for new mine development. It typically takes 10–15 years from mineral discovery to production, meaning that supply cannot respond quickly to demand surges. This temporal mismatch creates acute periods of scarcity and price volatility.

新矿山从勘探到投产通常需要 10 至 15 年的时间，这意味着供应无法快速响应需求激增，供应脆弱性由此进一步加剧。这种时间上的错位造成了严重的短缺期和剧烈的价格波动。

Supply risk = Geological scarcity × Geographic concentration × Political instability × Processing bottleneck

供应风险 = 地质稀缺性 × 地理集中度 × 政治不稳定性 × 加工瓶颈

4. Geopolitics and Resource Nationalism | 地缘政治与资源民族主义

Resource nationalism refers to policies where governments assert greater state control over mineral resources within their territory. This may take the form of export bans, forced local processing, increased royalties, or outright nationalization. Indonesia’s nickel export ban of 2020 is a prominent example, designed to compel foreign companies to build smelters domestically.

资源民族主义是指政府对其领土内的矿产资源强化国家控制的一系列政策。其形式包括出口禁令、强制本地加工、提高权利金或直接国有化。印尼 2020 年的镍出口禁令便是一个典型例子，其目的在于迫使外国企业在本国建设冶炼厂。

Strategic minerals have also become instruments of geopolitical leverage. In 2010, China temporarily restricted rare earth exports to Japan during a territorial dispute, demonstrating how mineral dependency can be weaponized. More recently, China has regulated the export of gallium and germanium, essential for semiconductor and fiber-optic industries.

战略矿产已成为地缘政治博弈的工具。2010 年，中国在领土争端期间对日本实施稀土出口限制，展示了矿产依赖如何被武器化。近年来，中国还对镓和锗（半导体与光纤产业的关键原料）实施了出口管制。

5. Case Study: Rare Earth Elements and China’s Dominance | 案例研究：稀土元素与中国的支配地位

Rare earth elements comprise 17 chemically similar metallic elements used in permanent magnets, wind turbines, electric vehicle motors, and precision-guided weapons. Although rare earth deposits exist widely across the globe, China’s advantage lies in its integrated supply chain — from mining and separation to magnet production.

稀土元素包含 17 种化学性质相似的金属元素，用于永磁体、风力涡轮机、电动汽车电机和精确制导武器。尽管稀土矿床在全球广泛分布，中国的优势在于其一体化的供应链——从开采、分离到磁材生产。

China’s ability to refine rare earths at lower cost and with less environmental damage (compared to early U.S. operations) stems from decades of state-supported research, environmental laxity in earlier periods, and deliberate industrial policy. The result is an extraordinary market position: processing nearly all heavy rare earths globally.

中国之所以能够以更低成本、更少环境损害（与早期美国运营相比）精炼稀土，源于数十年国家支持的研发、早期较为宽松的环境监管以及有意的产业政策。其结果形成了非凡的市场地位：全球几乎所有重稀土都由其加工处理。

For importing countries, rare earth vulnerability lies in the absence of economically viable alternatives. Recycling remains minimal, substitution is technically difficult for high-performance magnets, and establishing new processing capacity requires years and enormous capital investment.

对进口国而言，稀土的脆弱性在于缺乏经济可行的替代方案。回收利用仍微不足道，高性能磁体难以在技术上实现替代，而建立新的加工产能需要数年时间和巨额资本投入。

6. Case Study: Lithium and Cobalt for the Energy Transition | 案例研究：能源转型中的锂与钴

The transition to electric vehicles (EVs) has created unprecedented demand for lithium-ion battery materials. Lithium demand is projected to grow by over 40 times by 2040 under IEA scenarios compatible with net-zero emissions. Cobalt, used in high-energy-density cathodes, presents deeper ethical and security concerns.

电动汽车转型为锂离子电池材料创造了前所未有的需求。根据国际能源署与净零排放目标一致的预测情景，到 2040 年锂需求量预计将增长 40 倍以上。用于高能量密度正极的钴则引发了更深层的伦理与安全关切。

The Democratic Republic of Congo’s cobalt mines, particularly artisanal operations, have been linked to child labor and hazardous working conditions. This creates pressure on Western automakers and battery manufacturers to adopt responsible sourcing protocols, such as the OECD Due Diligence Guidance for Responsible Mineral Supply Chains.

刚果民主共和国的钴矿——尤其是手工采矿作业——一直与童工和有害工作条件相关联。这促使西方汽车制造商和电池企业采用负责任采购规范，例如经合组织《负责任矿产供应链尽职调查指南》。

Technological responses include the development of cobalt-reduced lithium iron phosphate (LFP) batteries, now dominant in China, and the pursuit of sodium-ion batteries. However, these substitutions bring trade-offs in energy density and performance, and may create new dependencies on different minerals.

技术应对方案包括开发低钴的磷酸铁锂电池（目前已在中国占主导地位），以及推进钠离子电池的研发。然而，这些替代方案在能量密度和性能方面需要作出取舍，并可能形成对其他矿产的新的依赖。

7. Environmental and Social Costs of Extraction | 开采的环境与社会代价

Strategic mineral extraction often carries severe environmental consequences. Lithium brine extraction in the Atacama salt flats of Chile consumes enormous quantities of water — roughly 2,000 tons of water per ton of lithium — depleting fragile desert aquifers that sustain indigenous communities and unique ecosystems.

战略矿产开采通常伴随着严重的环境后果。智利阿塔卡马盐沼的卤水提锂消耗大量水资源——每生产一吨锂约需 2,000 吨水——耗竭着滋养原住民社区和独特生态系统的脆弱沙漠含水层。

Deep-sea mining represents an emerging frontier with significant uncertainty. Polymetallic nodules on the Pacific Ocean floor contain nickel, cobalt, copper, and manganese, but extraction risks destroying benthic ecosystems that scientists have only begun to understand. The International Seabed Authority currently faces intense pressure to establish robust environmental regulations before commercial exploitation proceeds.

深海采矿是一个充满重大不确定性的新兴前沿领域。太平洋海底的多金属结核含有镍、钴、铜和锰，但开采可能摧毁科学家才刚刚开始了解的底栖生态系统。国际海底管理局目前正面临巨大压力，要求其在商业开采推进之前建立强健的环境法规。

Mining communities frequently experience a “resource curse” — paradoxically, regions rich in minerals often exhibit higher poverty, conflict, and corruption. The revenues from extraction frequently fail to benefit local populations, leading to social license challenges and community resistance.

矿业社区常常经历”资源诅咒”——矛盾的是，矿产丰富的地区往往呈现更高的贫困率、冲突和腐败。开采收入常常未能惠及当地居民，导致社会许可挑战和社区抵制。

8. Strategies for Enhancing Mineral Security | 增强矿产安全的策略

Countries employ a multi-pronged approach to mitigate mineral supply risks. These strategies can be categorized under the “four R’s”: Reduce, Reuse, Recycle, and Replace — supplemented by diversification and strategic stockpiling.

各国采取多管齐下的方法来降低矿产供应风险。这些策略可归类为”四个 R”：减少（Reduce）、再利用（Reuse）、回收（Recycle）和替代（Replace）——并辅以供应多元化和战略储备。

Diversification of supply sources: the U.S. Defense Logistics Agency and Japan’s JOGMEC fund overseas mining projects to reduce dependence on any single country.
供应来源多元化：美国国防后勤局和日本金属矿物资源机构（JOGMEC）投资海外矿业项目，以减少对单一国家的依赖。

Strategic stockpiles: China, the United States, Japan, and South Korea maintain government-held reserves of critical minerals to buffer against short-term supply disruptions.
战略储备：中国、美国、日本和韩国均持有政府层面的关键矿产储备，以缓冲短期供应中断。

International cooperation: the Minerals Security Partnership, launched by the U.S. and its allies in 2022, aims to catalyze investment in responsible mining and processing across the supply chain.
国际合作：美国及其盟友于 2022 年发起的”矿产安全伙伴关系”旨在催化供应链上负责任的采矿与加工投资。

Urban mining: recovering valuable metals from electronic waste offers a secondary source of supply, though currently recycling rates for most critical minerals remain below 1%.
城市采矿：从电子废弃物中回收有价值的金属提供了二次供应来源，尽管目前大多数关键矿产的回收率仍低于 1%。

9. Circular Economy Perspectives | 循环经济视角

The circular economy offers a fundamental rethinking of mineral management, moving from a linear “take-make-dispose” model to one of closed-loop material flows. For critical minerals, this means designing products for durability, repairability, and eventual material recovery.

循环经济为矿产管理提供了根本性的反思路径，从线性的”获取—制造—废弃”模式转向闭环的材料流动。对关键矿产而言，这意味着设计耐用的、可维修的、最终可实现材料回收的产品。

Battery recycling is emerging as a particularly important opportunity. Companies such as Redwood Materials in the United States and Li-Cycle in Canada aim to recover lithium, cobalt, nickel, and manganese from spent batteries, potentially supplying 20–30% of battery material demand by 2040 without additional mining.

电池回收正成为一个尤为重要的发展机遇。美国的 Redwood Materials 和加拿大的 Li-Cycle 等企业致力于从废旧电池中回收锂、钴、镍和锰，到 2040 年或可满足电池材料需求的 20%–30% 而无需额外的矿山开采。

Circularity rate = Recycled material input ÷ Total material throughput

循环率 = 回收材料投入量 ÷ 材料总流量

However, the circular economy faces economic and technical barriers. Downcycling — where materials deteriorate in quality with each recycling loop — limits its application to high-grade magnetic alloys. Additionally, global battery chemistries are evolving so rapidly that recycling infrastructure may become obsolete before recovering its capital cost.

然而，循环经济面临经济与技术障碍。降级回收——即材料在每次循环中质量下降——限制了其在高性能磁性合金中的应用。此外，全球电池化学体系发展极为迅速，回收设施可能在收回资本成本之前就已过时。

10. Conclusion: The New Geopolitics of Minerals | 结论：矿产的新地缘政治

Mineral security has moved from the periphery of geopolitical discourse to its center. The race for critical minerals will shape international relations, economic strategies, and environmental governance for decades to come. For A-Level geography students, understanding these dynamics requires connecting physical geography (where minerals form), human geography (how markets and politics allocate them), and environmental geography (at what cost they are extracted).

矿产安全已从地缘政治话语的边缘走向核心。关键矿产的竞赛将在未来数十年内塑造国际关系、经济战略和环境治理。对 A-Level 地理学生而言，理解这些动态需要联结自然地理（矿产在何处形成）、人文地理（市场和政治如何配置它们）以及环境地理（开采它们付出了何种代价）。

Ultimately, mineral security is not merely a matter of geological abundance, but of technological capability, infrastructure investment, institutional trust, and international governance. Nations that recognize this systemic complexity — and invest accordingly in research, recycling, and diplomatic engagement — will prove more resilient in a resource-scarce future.

归根结底，矿产安全不仅关乎地质丰度，更关乎技术能力、基础设施投资、制度信任和国际治理。那些认识到这一系统性复杂性并相应投资于研究、回收和外交接触的国家，将在资源稀缺的未来展现更强的韧性。

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Mineral Security and Strategic Resources | 矿产安全与战略资源