Recycling & Circularity Developed 2025 · C15 4 min

Strategic Entry into Africa's Battery Value Chain: Feasibility Assessment of South Africa and Morocco

The global shift toward electric mobility and renewable energy is intensifying competition for secure battery supply chains, and the Africa battery value chain sits at the centre of that contest. This case study assesses where a company can most viably enter, comparing South Africa's mineral strength against Morocco's fast-growing downstream manufacturing base across refining, precursor production, battery assembly, recycling, and battery energy storage system (BESS) deployment.

The Value Capture Problem

Africa holds some of the world's most important battery minerals, including major reserves of cobalt, manganese, graphite, and vanadium. The Democratic Republic of Congo supplies more than half of global cobalt, while South Africa controls significant shares of manganese and platinum group metals. Yet most critical minerals are still exported in raw form, which limits local value capture and slows industrial development. Midstream processing capacity across the continent remains very small. That gap is the strategic opening the case explores, framed around four questions: which value chain segment offers the most feasible entry point, which partnerships reduce technical and regulatory risk, how regional trade frameworks such as the African Continental Free Trade Area (AfCFTA) can widen market access, and which business model builds the most durable long-term value.

South Africa: Minerals and Chemistries

A 2023 United States Geological Survey review found South Africa hosts 10 of 29 concentrated critical mineral commodities, second only to China. The country holds 88 percent of global platinum group metal reserves, 80 percent of manganese, 72 percent of chromite, and meaningful shares of vanadium at 32 percent, zirconium at 25 percent, and titanium at 10 percent. It is also among the top 15 producers of nickel and cobalt, though at lower volumes. This base supports several chemistry pathways. Large iron-ore and manganese reserves make lithium iron phosphate (LFP) a feasible future option, while manganese, cobalt, and nickel point toward nickel manganese cobalt (NMC), albeit with higher capital and technical barriers.

Vanadium stands out. South Africa is the third-largest producer after Russia and China, and vanadium redox flow batteries (VRFBs) suit large-scale, long-duration grid storage. Only about 10 percent of the country's vanadium is used domestically, with most exported to destinations led by the Netherlands. Global VRFB deployment already exceeds 1 GWh annually, and the Asia Pacific region is projected to reach roughly 14.5 GWh of a 32 GWh worldwide market by 2031.

Market Demand, Storage, and Recycling

Demand signals are strong but uneven. South Africa's 2019 Integrated Resource Plan targets a rise in battery-storage capacity from 2 GW to 6.6 GW by 2032, and the national utility's BESS programme pairs 1.44 GWh of storage with 60 MW of solar. With more than 80 percent of 2023 electricity still coming from coal and renewables supplying about 12 percent, grid instability creates a clear opening for stationary storage suppliers. In mobility, South Africa remains Africa's leading automotive hub, yet EVs account for less than 2 percent of new car sales. The EV market generated about 1,087 million dollars in 2024 and is projected to reach roughly 7,063 million dollars by 2030, a 36.6 percent compound annual growth rate.

Recycling is the weakest link. The sector has historically focused on lead-acid batteries, while lithium-ion recycling remains limited and largely dependent on exporting waste to Europe or China, which is costly and constrained by transport rules. Extended Producer Responsibility policies exist but are weakly enforced. The first local lithium-ion recycler began operating in 2024, though at small scale. VRFB electrolyte reuse and mining-tailings reclamation offer additional circularity potential.

Implications for the Industry

The comparison points to a differentiated entry logic. South Africa's advantage is upstream and midstream: raw minerals, vanadium electrolyte production, and grid-scale VRFB manufacturing that needs less precision and lower capital than lithium-ion cell production. Morocco, by contrast, offers downstream pull through EV manufacturing, precursor processing, and renewable integration. For the wider industry, the case shows that African value capture depends less on abundant reserves and more on building processing capacity, securing partnerships, and using trade frameworks such as AfCFTA to reach regional demand.

Key Takeaways

The Democratic Republic of Congo supplies over half of global cobalt, yet most African minerals are still exported raw, limiting local value capture.

South Africa hosts 10 of 29 concentrated critical minerals, including 88 percent of platinum group metals and 80 percent of manganese reserves.

Vanadium redox flow batteries are a realistic entry point for grid-scale storage, needing less precision and capital than lithium-ion cell production.

Only about 10 percent of South African vanadium is used domestically, signalling room for local electrolyte and grid-storage manufacturing.

National storage targets rise to 6.6 GW by 2032, and coal-heavy grids create strong demand for BESS deployment.

Lithium-ion recycling is nascent, with the first local recycler starting in 2024 and most battery waste still exported.

Morocco complements South Africa by offering a downstream manufacturing base, supporting a mixed refining, precursor, and BESS strategy.