Rare Metals, Gold and Beyond: How the Great Power Struggle is Reshaping Africa’s Mining Sector

From a Geological Center to a Geoeconomic Hub

Africa’s role in critical minerals and gold has a systemic meaning that goes beyond production volumes. As of 2024, about 76% of global cobalt, 66% of manganese, and 82% of platinum production comes from Africa. These figures place the continent beyond the category of a “major supplier.” In some segments, Africa effectively shapes the global supply regime. This level of concentration goes beyond traditional commodity market logic. It creates structural pressure that fuels mineral security strategies. When supply is so heavily concentrated in one continent, strategic sectors such as energy transition and defense become directly exposed to geopolitical risks. Costs, production planning, and industrial policy decisions all become sensitive to political developments. In this sense, Africa’s production capacity forms a material base for global power projection. This reality also increases international interest in the continent.

Looking at cobalt, the Democratic Republic of the Congo (DRC) produces 220,000 tons, which equals roughly 76.8% of global output. It also holds more than half of global reserves, with 6 million tons. Such concentration makes the energy transition supply chain vulnerable to a single-country shock. A regulatory shift, export restriction, or security crisis in the DRC could directly raise global battery production costs. This gives cobalt clear geoeconomic leverage and price-setting influence. While production is concentrated in the DRC, most processing capacity is located outside Africa. This creates a structural imbalance in the value chain. Geological concentration and industrial concentration exist in different regions. The result is both vulnerability and strategic competition, with direct effects on markets.

In manganese and platinum group metals, production is concentrated in South Africa and Gabon. This makes Africa essential for both the steel industry and the hydrogen economy. Manganese is a key input in steel production and supports industrial continuity. Platinum group metals are central to hydrogen fuel cells and catalytic systems. They are therefore critical to the advanced stages of the energy transition. These metals have dual strategic value. They sustain the current industrial order and support the building of a new energy system. Because production is concentrated in a few African states, supply security in these segments sits at the center of geopolitical competition. Africa thus becomes an unavoidable actor in global industrial policy.

In lithium, Africa currently accounts for around 10% of global supply. However, with the launch of the Manono site in the DRC and the acceleration of new projects, this share is likely to rise. This shows that Africa’s role in battery metals will not remain limited to cobalt. New lithium projects could move the continent toward a more integrated position in the battery value chain. The key issue is whether the export-based raw ore model will continue. If local beneficiation and intermediate processing do not expand, higher output alone will not change Africa’s structural position in the global value chain.

_{Table: Africa’s Share in Global Critical Minerals (2024)}

The core issue is clear. Africa is a geological center, but not yet an industrial one. The continent provides the physical foundation of global supply. Yet it holds a limited share in refining, intermediate processing, and high value-added production. This creates a dual reality. Africa is indispensable, but also structurally dependent. Geological concentration gives bargaining power. However, since industrial concentration remains outside the continent, control of the value chain largely stays in external hands. For this reason, Africa’s systemic weight in global mining depends less on production shares and more on where and at which stage value is created.

Ownership Asymmetry and the Value Chain Trap

Production concentration does not mean economic sovereignty. In the case of cobalt, roughly one-third of supply in the Congo is controlled by Chinese-based companies, and another third by European-based firms. The share of local companies remains below 5%. This creates a clear gap between physical location and economic control. Although the mines are in Africa, cash flow, decision-making power, and technology transfer are largely directed outside the continent. Even when production volumes are high, capital accumulation and strategic control remain concentrated in external actors. This limits Africa’s ability to build a sustainable development model.

Across the continent, the share captured from the full value chain usually stays within the 10–15% range. The key issue is that refining and chemical processing capacity is largely concentrated in China and other parts of Asia. China dominates global battery mineral refining capacity and links African extraction to its own midstream facilities. This creates a closed chain stretching “from mine to battery.” After raw ore is exported, most of the value added is generated outside Africa. As a result, there is a structural imbalance between Africa’s production volume and its gains within the global value chain.

This structure produces two main outcomes:

1. Africa supplies most of the raw material but has limited pricing power.

2. High-profit and technology-intensive segments are concentrated outside the continent.

Limited pricing power often leaves African producers as price takers. Long-term offtake agreements and the financial strength of multinational firms reinforce this position. In contrast, high-margin stages such as refining, chemical conversion, battery cell production, and advanced materials engineering are clustered in Asian and partly Western industrial hubs. These segments also host R&D, patent ownership, and standard-setting capacity. As a result, the strategic nodes of the value chain remain outside Africa.

This dynamic has shifted great power competition toward supply chain control. The contest now goes beyond acquiring mining licenses. It focuses on controlling logistics corridors, investing in refining capacity, securing long-term offtake agreements, and building strategic reserves. The core issue is no longer simply where the ore is extracted, but which industrial ecosystem it is integrated into. This situation continues to sustain, and at times reproduce, patterns of structural dependency in Africa.

China: Debt-Trap–Based Integrated Dominance and Supply Chain Control

China’s model in Africa may appear capital-intensive, yet it does not rest on classical equity export. In mining and transition minerals, financing operates largely through credit-based structures. Only 19 percent of transition-mineral financing consists of public or publicly guaranteed (PPG) debt, while 81 percent falls under non-PPG arrangements channeled through joint ventures (JVs) and special purpose vehicles (SPVs). This framework produces a debt-driven architecture. Between 2000 and 2021, 57 percent of transition-mineral loans were collateralized. Repayment is frequently tied to future export revenues or production flows. In resource-for-infrastructure arrangements, mining concessions, infrastructure projects, and credit facilities are consolidated within a single contractual framework, with repayment secured through future mineral output.

The defining feature is not financial scale but an integrated supply chain strategy anchored in debt. Extraction sites in Africa are linked to refining facilities, cathode production, and battery cell manufacturing in China. Loans function as deal facilitators that secure long-term concessions and offtake rights. Within JV structures, production shares are directed into China’s processing ecosystem through binding offtake agreements. What ultimately matters is contractual integration reinforced by credit and technological capacity. China’s advantage lies in extraction techniques, chemical refining capacity, cathode material production, and battery manufacturing. African ore becomes embedded in China’s midstream and downstream industrial system.

The model generates three strategic advantages:

• Contract-based leverage over assets: Even with limited equity participation, collateralized loans and bundled agreements create directional control over reserves and output.

• Midstream concentration: Value addition and technological intensity remain concentrated in China, while debt-linked offtake agreements secure feedstock flows.

• Flexibility across price cycles: Long-term offtake commitments and vertical integration provide room to manage volatility, though outcomes remain tied to global demand and host-country regulation.

The strategy now targets the entire battery value chain rather than a single mineral. African production is systematically connected to chemical processing, cathode manufacturing, and cell production in China, reinforcing supply chain lock-in through debt-backed contractual arrangements.

Looking toward 2030, deeper engagement is likely to take the form of expanded midstream investment, extended offtake agreements, and increasingly complex JV financing structures. Rising resource nationalism, greater state participation, and contract renegotiations may narrow China’s bargaining space. In mining, 19 percent of financing constitutes public debt exposure, while 57 percent of loans are collateralized. The operative mechanism is not classical capital export but a debt-based form of conditional structural power shaped by credit, technology, and contractual integration. Structural withdrawal appears unlikely in the near term; durability will depend on political and economic negotiation.

The United States: Financing Blocs and Corridor Geopolitics

The U.S. model is less vertically integrated and more bloc-based in orientation. Rather than acquiring mining sites or consolidating control from extraction through refining, it focuses on shaping market incentives, mitigating investment risk, and organizing supply chains through financial instruments and institutional coordination.

Two initiatives illustrate this logic.

Project Vault is conceived as a strategic price stabilization facility for selected critical minerals. It is designed to function as a counter-cyclical mechanism: when prices fall sharply, it would intervene through price floors or long-term purchase commitments, effectively acting as a buyer of last resort. The objective is to prevent production shutdowns during downturns, stabilize investment expectations, and reduce the vulnerability of non-Chinese producers to price suppression strategies. In this sense, Project Vault reflects a strategic reserve logic adapted to mineral markets—using financial capacity to smooth volatility and preserve supply resilience.

FORGE (Focused Opportunity for Resource Growth and Expansion) operates at a different level. It is structured as an allied supply-chain coordination platform intended to deepen cooperation among trusted partners in extraction, processing, and trade. Rather than leaving mineral flows to purely open-market dynamics, FORGE seeks to align supply networks within a security-oriented framework. It promotes preferential sourcing, shared standards, information exchange, and investment coordination among partner countries. The emphasis is on building redundancy and diversification within a geopolitical bloc, thereby reducing systemic exposure to concentrated supply.

Within this framework, Project Vault addresses price instability, while FORGE addresses structural dependency. Together they operate through price support mechanisms, strategic stockpiling logic, and allied supply coordination. Financial backing is mobilized through policy banks and development finance institutions that provide loans, guarantees, insurance, and project financing. The U.S. approach therefore relies less on direct ownership of reserves and more on financial leverage, regulatory influence, and trade architecture to shape market outcomes. The result is a model of influence rooted in rule-setting, alliance-based coordination, and risk distribution rather than vertically integrated asset control.

Recent aid restrictions and the closure of USAID programs signal a significant shift in this strategy. As traditional development assistance contracts, political and financial capital is expected to be redirected toward strategic economic investments and supply chain security. This marks a transition from development centered engagement toward geoeconomic prioritization.

The Lobito Corridor constitutes the logistical pillar of the U.S. supply chain strategy. Transporting copper and cobalt through the Atlantic is intended to create an alternative to China centered routes. The corridor represents a geostrategic effort to redirect supply flows. Battery value chain memoranda signed with the Democratic Republic of the Congo and Zambia seek to encourage a move from extraction toward processing. The United States aims to integrate African production into allied industrial blocs while supporting limited midstream capacity development within the continent.

The U.S. model is flexible but lacks the depth of China’s on the ground control. Limited ownership of physical assets means that influence is exercised through financial instruments and trade arrangements rather than direct reserve control. This provides diplomatic flexibility. At the same time, it results in a more indirect impact on production volumes and operational decisions. The approach depends on network-based supply security instead of vertically integrated dominance.

U.S. success will depend on scaling up financing and expanding refining and processing capacity in Africa or allied regions. Without this expansion, Washington may remain a supply directing actor without controlling production. If refining and chemical processing are not strengthened, the strategy risks remaining confined to logistics and financial engineering, with limited leverage over the most profitable stages of the value chain.

The European Union, Russia, and India: A Multipolar Layer

The European Union has developed strategic raw materials partnerships with the Democratic Republic of the Congo and Zambia, positioning itself as a regulatory power rather than a capital-heavy investor. Its influence operates through market access conditions, sustainability criteria, and governance standards. This approach is institutionalized under the Critical Raw Materials Act (CRMA), adopted in 2024 as the EU’s core supply-security framework. The Act sets clear 2030 benchmarks: at least 10 percent of strategic raw materials consumed in the EU must be extracted domestically, 40 percent processed within the EU, and 25 percent supplied through recycling. At the same time, it caps dependency by requiring that no more than 65 percent of any strategic raw material at a given processing stage originate from a single third country.

Within this structure, partnerships with resource-rich states are not merely trade arrangements but part of a diversification strategy embedded in law. The CRMA accelerates permitting for designated “Strategic Projects” and strengthens supply-chain monitoring, while tying access to the European market to environmental, governance, and traceability standards. In effect, the EU shapes upstream production practices abroad through regulatory leverage at the point of market entry.

This approach is also visible in countries such as Zimbabwe and Botswana, particularly in the lithium sector. European interest has increased, yet investment signals often appear cautious and inconsistent. Capital mobilization remains slower than that of China or the United States. At the same time, the EU’s growing focus on defense spending and strategic autonomy has redirected fiscal priorities inward. As more resources are allocated to the European defense industry, external industrial expansion loses momentum. This inward shift creates additional room for China to expand in African mining jurisdictions, especially where rapid financing and execution are decisive.

Russia follows a hard power-oriented model. Its presence in parts of Africa is shaped by military companies and intelligence networks. Entry into the mining sector often occurs through security arrangements that grant access to extraction rights. In several cases, resource revenues are linked to efforts to generate financial flows connected to the war in Ukraine. The overall scale does not match China’s integrated investments. Russia does not provide structural contributions in terms of technology transfer, productivity gains, or institutional capacity building. Security backing may offer short term regime support. Over time, however, this model weakens transparency and strengthens informal and black-market networks within the sector. Such dynamics undermine stability and erode institutional credibility in the investment climate.

India acts mainly as a demand driven player. It seeks lithium and rare earth agreements across Africa, including in Zimbabwe, to reduce dependence on China. This aligns with the expansion of its battery manufacturing and renewable energy sectors. Its financial scale remains limited. The strategy focuses on long term supply agreements and joint ventures rather than direct control of mining sites. This introduces an additional demand axis into Africa’s geoeconomic landscape and adds a balancing factor against China’s dominant position.

_{Table: Competing Models in Africa’s Mining Sector}

The Positive and Negative Effects of Competition

Great power competition in Africa’s mining sector creates both capacity growth and vulnerability. On the positive side, infrastructure investment has increased significantly. Railways, ports, and energy projects connect mining sites to global markets faster and at lower cost. This reduces logistics expenses and supports regional integration. Diversified transport corridors decrease dependence on a single route and improve geostrategic flexibility. At the same time, competition among China, the U.S., and the EU has strengthened the bargaining power of producer states. Higher state ownership shares, local processing requirements, and contract revisions have become more common. The rise of critical mineral trade to around $2.5 trillion has placed the sector at the center of global macroeconomic balances. It has created major opportunities in terms of public revenues and export potential.

However, the negative side of competition is also clear. Frequent contract revisions and regulatory changes create uncertainty in the investment climate. This can discourage long-term capital flows. Waves of resource nationalism, export bans, and tax increases reduce predictability. In fragile regions, the growing link between security actors and mining activities exposes the sector to direct geopolitical and military risks. In addition, supply concentration in limited geographies, combined with geopolitical interventions, has turned price volatility into a structural feature rather than a temporary fluctuation. In short, competition places Africa at the center of the global mining system while simultaneously generating economic opportunity and strategic fragility.

Conclusion: Structural Control and Africa’s Strategic Position

Africa’s concentration of critical minerals forms the material foundation of the global energy transition. Yet geological centrality does not automatically translate into economic centrality. The decisive question is whether Africa will remain primarily a production geography or move into higher value, decision-shaping segments of the supply chain.

Great power competition revolves around this structural question, and each actor operates with a distinct toolkit. China enters through credit-structured finance, and its leverage rests on a debt-based architecture that combines collateralized loans, bundled infrastructure agreements, and long-term offtake arrangements. A significant share of transition-mineral loans has been secured through collateral mechanisms, while only a limited portion constitutes direct public debt exposure. This structure ties repayment to future production or export revenues and embeds extraction within a broader contractual framework.

Yet China’s decisive advantage lies in processing and chemical capacity. Control over the midstream links African ore to China’s industrial ecosystem and generates resilience across price cycles. Rising state participation, contract revisions, and stronger local processing mandates could narrow this space. If African governments institutionalize domestic processing requirements and renegotiate debt-linked concessions, China’s position shifts from structural to negotiated leverage.

The United States targets market architecture rather than reserve ownership. Through price stabilization concepts, financial guarantees, and allied supply networks, it seeks to reshape risk distribution and reduce exposure to China-centered routes. Logistical corridor initiatives function as instruments of geopolitical reorientation as much as infrastructure development. This approach provides diplomatic flexibility, yet its influence over production volumes and operational decisions remains indirect. Without scaling processing capacity in Africa or allied regions, the United States risks remaining a supply-directing actor rather than a production-controlling one.

The European Union relies on regulatory leverage. By tying market access to sustainability, traceability, and governance standards, it exerts indirect influence over supply chains. However, slower capital mobilization and growing internal defense priorities may constrain its industrial footprint. If regulatory authority is not matched by financial depth and on-the-ground investment, Europe may remain a rule-setting actor rather than a capacity-building force in Africa’s mining transformation.

Russia’s model differs in orientation. It is rooted in security-based engagement that connects mining access to political and military leverage. While this can generate short-term revenue streams and regime support, it does not foster structural gains in technology, productivity, or institutional development. Expansion of such arrangements risks reinforcing informality and fragility within parts of the sector. In high-risk regions, this dynamic may deepen the mining–security nexus and accelerate fragmentation.

These interacting strategies point to three plausible trajectories. In the first, Africa expands processing capacity and climbs the value chain. External competition is converted into industrial upgrading through local content rules, strategic financing, and the renegotiation of debt-linked agreements. In the second, production grows while refining and advanced processing remain external. Africa remains a geological hub, while economic control and technological intensity stay abroad. In the third, bloc divisions intensify, security risks rise, and investment flows become volatile. Supply chains fragment along geopolitical lines and price instability becomes structural.

A critical threshold lies ahead. China is likely to continue consolidating integration around processing capacity and debt-backed contractual frameworks. The United States will keep working to redirect and restructure supply networks through financial and alliance-based instruments. Europe will further strengthen standards-based leverage over market access. Russia will probably persist in operating through security linkages.

Africa’s trajectory will depend less on output volumes than on contractual strength, investment in domestic processing, and the quality of security governance. Geological advantage can evolve into industrial power only if midstream capacity, debt management, and institutional stability are firmly anchored within the continent. Otherwise, competition will intensify while the most profitable segments of the value chain remain externally controlled.

Relevant Sources:

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• AidData. Power Playbook: Beijing’s Bid to Secure Overseas Transition Minerals. January 28, 2025. Accessed February 12, 2026. https://www.aiddata.org/publications/power-playbook-beijings-bid-to-secure-overseas-transition-minerals.

• Atlantic Council. “The Strategies Driving the Players in Competition for Africa’s Critical Minerals.” Accessed February 8, 2026. https://www.atlanticcouncil.org/blogs/africasource/the-strategies-driving-the-players-in-competition-for-africas-critical-minerals/.

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• Reuters. “China’s Zijin to Launch Congo’s First Lithium Output in June from Disputed Manono Deposit.” February 11, 2026. Accessed February 12, 2026. https://www.reuters.com/world/asia-pacific/chinas-zijin-launch-congos-first-lithium-output-june-disputed-manono-deposit-2026-02-11/.

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• S&P Global. “China Drives Africa’s Battery Metals Supply Chain Buildout.” Accessed February 10, 2026. https://www.spglobal.com/energy/en/news-research/special-reports/metals/ci-0925-china-africa-battery-metals-supply-chain-buildout.

• Touré, Amina. Can Chinese Investment in Africa Drive Economic Growth and Improve Social Conditions? A Case Study of China’s Partnership with the Democratic Republic of Congo’s Mining Industry. June 4, 2025. Accessed February 12, 2026. https://www.growthinktank.org/en/can-chinese-investment-in-africa-drive-economic-growth-and-improve-social-conditions-a-case-study-of-chinas-partnership-with-the-democratic-republic-of-congos-mining-industry/.

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