Africa’s relationship with technology crossed a meaningful threshold in 2025. After years of importing the physical building blocks of its digital economy, from phones and network equipment to energy systems, the continent began treating hardware manufacturing as strategic infrastructure rather than an afterthought.

What once looked like isolated experiments in phone assembly or solar panel production has started to align with something far bigger: the rapid build-out of hyperscale data centres, renewable energy systems, and continent-spanning fibre networks. These systems demand scale, reliability, and long-term control, forcing governments and companies to rethink where and how critical hardware is produced.

By the end of the year, the conversation had shifted. Hardware localisation was no longer framed mainly as a jobs or cost-reduction play. It became a question of who controls the physical foundations of Africa’s digital economy, how resilient those foundations are, and how much economic value remains on the continent as data, compute, and connectivity grow.

Smartphones, Chips, and the Reality Check on Leapfrogging

Early efforts to localise electronics manufacturing revealed both ambition and constraint. Rwanda’s Mara Phones project remains one of the clearest examples. Launched in 2019, the Kigali factory aimed higher than simple assembly, producing motherboards and sub-boards locally, a rare technical milestone on the continent.

But capability alone was not enough. With devices priced between $130 and $190, Mara struggled to compete against cheaper Chinese and Korean smartphones in markets where penetration hovered around 15%. The project created skilled jobs and proved that local manufacturing was possible, yet global pricing pressure ultimately undermined its commercial sustainability.

Kenya took a different path. Rather than chasing differentiation, East Africa Device Assembly Limited (EADAK) focused on scale and affordability. Backed by Safaricom, Jamii Telecommunications, and Chinese partners, the Nairobi-based plant began operations in late 2023 with a clear mandate: produce large volumes of low-cost 4G smartphones.

That approach delivered results. Within its first year, EADAK produced over one million devices, targeting price points near $50. By December 2024, the Athi River facility, designed for an annual capacity of up to three million units, had crossed the million-device mark. This output aligned with Safaricom’s push to migrate 20 million customers to 4G, contributing to 23 million active 4G devices on its network by late 2025.

Supportive policy helped lower device costs by roughly 30%, allowing locally assembled models like the Neon Smarta and Neon Ultra to retail for as little as $70 by the end of 2025. Still, international competition remained fierce. Brands such as Infinix and Redmi limited local traction, with Neon smartphones holding just 0.68% market share by mid-2025.

Kenya has also tested higher-value manufacturing at the edges. Semiconductor Technologies Ltd, based at Dedan Kimathi University of Technology, operates one of Africa’s few commercial fabrication facilities, producing nanotechnology and integrated circuits for export with U.S. partner 4Wave. While still small, a U.S.-funded feasibility study into legacy automotive and power chips reflects how global supply chain realignments are opening narrow but real windows for African participation.


Energy Hardware Finds a Stronger Economic Case

If phones exposed the limits of localisation, energy hardware has demonstrated where it can work.

Kenya’s Solinc manufacturing plant in Naivasha, operational since 2011, shows what happens when industrial policy, financing models, and market demand align. The facility produces solar modules ranging from 20 to 250 watts, serving both rural households and urban consumers seeking reliable power.

By 2025, Solinc had cemented its role as a regional anchor. As Africa’s longest-running photovoltaic manufacturer, it produces more than 140,000 solar panels annually, with an installed production capacity of about 8.4 MW. Expansion has been supported by exports to Uganda and Tanzania, as well as pay-as-you-go financing models popularised by firms like M-KOPA, which lowered upfront costs and unlocked mass adoption.

That year, Solinc also pushed beyond off-grid retail into commercial and industrial installations, supplying systems ranging from 20 kW to over 500 kW. This mix of high-volume consumer demand and higher-margin industrial projects strengthened the business case for local energy manufacturing.

As price differences between locally assembled panels and imported Chinese modules narrowed, buyers increasingly weighed factors beyond cost, including warranties, after-sales support, and supply stability. Chinese manufacturers still dominate market share, but decision-making is no longer purely price-driven.

Meanwhile, major Chinese investments in solar manufacturing hubs across Ethiopia and Egypt have created hybrid ecosystems, blending foreign capital and technology with African labour and regional markets. Even so, upstream components such as wafers and precision equipment remain concentrated in Asia, highlighting the current ceiling of localisation.

Global Hardware, Local Systems

A similar hybrid model is emerging in more complex sectors. Zipline’s drone delivery operations in Rwanda and Ghana illustrate how globally engineered hardware can be embedded into national infrastructure when aligned with public policy.

Since launching in Rwanda in 2016, Zipline has cut medical delivery times from hours to minutes by integrating aircraft, software, and regulatory frameworks directly into public health systems. By 2025, the company had become the world’s largest autonomous logistics network, surpassing 120 million autonomous miles flown without a single injury-causing incident.

Growth accelerated further with a $150 million pay-for-performance grant from the U.S. State Department, aimed at tripling Zipline’s African reach to 15,000 health facilities serving roughly 130 million people. The company also began commercialising its Platform 2 system for urban, direct-to-consumer deliveries while scaling manufacturing to produce up to 15,000 aircraft per year.

From Gadgets to Hyperscale Infrastructure

What sets 2025 apart is the shift away from device-centric localisation toward systems-level industrialisation.

Africa’s hardware story is now tightly linked to the rise of data centres driven by AI, cloud computing, and 5G. Continental data centre power demand is projected to reach 2 GW by 2030, requiring between $10 billion and $20 billion in investment.

If data is the new oil, then compute is the refinery, said Alex Tsado, co-founder of Alliance4AI and Ahura AI. He noted that 2025 marked a turning point in leadership thinking. There is growing recognition that 21st-century problems cannot be solved with 20th-century tools.

Kenya’s $1 billion geothermal-powered data centre backed by Microsoft and G42 reflects this new phase. Designed as green, AI-ready infrastructure, it signals that Africa can host globally competitive facilities rather than simply consuming foreign compute.

Connectivity expanded alongside compute. Subsea cables such as Google’s Equiano and Meta’s 2Africa pushed Africa’s total subsea capacity beyond 1,835 Tbps. Inland, Nigeria launched a public-private partnership to deploy 90,000 kilometres of terrestrial fibre, while Google announced the Umoja cable linking Africa directly to Australia.

These developments have reshaped the economics of hardware localisation. Fibre, energy systems, batteries, and cooling infrastructure are now strategic assets, not supporting inputs.

Nigeria’s Fibre Bet

Nowhere is this clearer than in Nigeria. In October 2025, Coleman Wires and Cables commissioned Africa’s largest fibre-optic manufacturing facility. The Nigerian-owned plant spans 400,000 square metres and can produce up to nine million kilometres of fibre annually, roughly half of Africa’s estimated demand.

This is localisation at a continental scale. Beyond reducing exposure to currency volatility and long supply chains, domestic fibre production strengthens national broadband ambitions and anchors value closer to home.

The signal is clear: Africa’s hardware future is less about assembling end-user devices and more about producing the invisible infrastructure that powers connectivity, cloud platforms, and AI systems.

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Energy as the Binding Constraint

As digital infrastructure expands, energy has become the limiting factor. Data centres and fibre networks cannot depend on unreliable grids. Across the continent, operators are turning to captive renewable energy and advanced storage.

Examples include Teraco’s 120 MW solar PV plant in South Africa and modular geothermal solutions supporting East African data centres. Teraco’s facility alone is expected to generate more than 354,000 megawatt-hours of clean energy annually.

These projects underscore a broader reality: hardware, energy, and digital growth are now inseparable.

A Clear Direction, With Hard Trade-Offs

Despite momentum, challenges remain. Most localisation still stops at assembly, with high-value components imported. Capital continues to favour software over hardware and deep tech. Policy inconsistency, from taxes to local content rules, deters long-term investment.

The next step is moving from awareness to allocation, Tsado said. Governments and institutions must dedicate real budgets to sovereign hardware. At UduTech, we are already seeing how localised GPU infrastructure can support national security, infrastructure monitoring, and startup ecosystems.

What 2025 made undeniable is direction. Africa’s hardware push is no longer aspirational. The continent has begun aligning manufacturing with hyperscale infrastructure, renewable energy, and global data flows.

The question now is not whether Africa can build hardware but whether it can move fast enough, and at sufficient scale, to secure its place in the digital economy it is rapidly creating.