Commercial Feasibility of LFP Battery Cell Manufacturing in South Africa

Rapidly Expanding Regional Market

The study finds that South Africa and Southern Africa together will require 55 GWh of battery capacity by 2034, driven overwhelmingly by the expansion of BESS for utility scale, commercial and industrial, and critical infrastructure applications.

This demand is underpinned by:

• South Africa’s grid stability challenges and energy transition requirements

• The IRP 2025 target of 105 GW of new generation capacity

• Growing commercial and industrial adoption of storage

• Accelerating tender activity for utility scale BESS projects

The analysis concludes that domestic demand alone could support two to three local manufacturers operating at competitive scale by 2034.

Cost Competitiveness and Industrial Advantage

A detailed benchmarking of production costs across nine comparator countries shows that South Africa compares favourably with major manufacturing economies including Germany and Brazil. While some lower-cost Asian jurisdictions retain a wage advantage, the analysis notes that this reflects labour market informality and weak wage enforcement rather than genuine productivity superiority.

The study finds that South Africa's competitive position on energy costs, water costs, and the incentive architecture available through Special Economic Zones (SEZs), when assessed under various policy and tariff scenarios within WTO bound rates, is sufficient to close the cost gap with East Asian cell producers and deliver price-competitive product to regional customers. Local refining and beneficiation of LFP precursor materials could further reduce landed costs to an estimated $68–72 per kWh by 2030, potentially up to 40% below global import prices.

Strong Resource Base, Strategic Gaps

South Africa has significant reserves of iron ore, phosphate, and copper, all core inputs for LFP battery chemistry, along with established metals and chemicals processing capacity. Regional partnerships, especially with Zimbabwe for lithium and Mozambique for graphite, are essential for securing the full LFP precursor mix.

The study highlights opportunities to expand upstream beneficiation and midstream manufacturing over time through a phased localisation pathway, beginning with cell assembly and foil processing, and progressing to cathode/anode production and full integration.

Atlantis and Coega: Preferred Gigafactory Locations

The feasibility study assessed five SEZ locations against a weighted criteria framework covering infrastructure readiness, proximity to ports, incentive depth, available space, grid reliability, water security, and access to talent. The Atlantis SEZ emerged as the top-ranked preferred location, scoring highest on proximity to South Africa's densest cluster of battery pack assemblers and integrators which provide an immediate anchor customer base for locally manufactured cells. Atlantis also offers unique access to renewable energy projects in the Western Cape, enabling a green-powered manufacturing operation from the outset.

Coega IDZ in the Eastern Cape is identified as the second preferred location, supported by deep water port access and an established industrial base. Both SEZs offer competitive SEZ-level tax incentives, streamlined permitting, and the infrastructure depth required for gigafactory-scale operations.

Jobs, Skills and Industrial Development Potential

A 5 GWh facility would directly employ over 560 people, concentrated in equipment operation, maintenance, quality assurance, and engineering roles. Thousands more jobs could be created across upstream mining, midstream processing, logistics, and downstream integration.

The study also highlights the critical importance of skills development infrastructure, recommending early engagement with the Manufacturing, Engineering and Related Services SETA (merSETA) and the Chemical Industries Education and Training Authority (CHIETA), alongside partnerships with South African universities and the CSIR, to develop the specialist electrochemistry and advanced manufacturing capability the sector requires

Regulatory Pathway and Investment Requirements

The feasibility study maps a detailed permitting and approvals timeline, finding that a large scale gigafactory requires 2 to 3 years to move from environmental approval to commissioning, depending on sequencing and infrastructure readiness.

It also identifies key risks such as policy certainty, standards and certification gaps, import dependency for lithium and graphite, and global supply chain volatility, whilst outlining the possible mitigation strategies such as early offtake agreements, SEZ enabled utilities upgrading, and international technology partnerships.

A Strategic Industrial Opportunity for South Africa

Overall, the study concludes that establishing a domestic LFP cell gigafactory is both commercially feasible and strategically important for South Africa’s energy transition, industrial policy objectives, and manufacturing competitiveness.

The findings directly support national frameworks including the South African Renewable Energy Masterplan (SAREM), the Integrated Resource Plan (IRP), and the Just Energy Transition Investment Plan (JET-IP). A local gigafactory would anchor a new clean technology manufacturing sector, strengthen supply chain resilience, and lay the groundwork for future EV and heavy mobility battery markets.