ABA Editorial · Jan 20, 2026 · 13 min read
Content distribution and device access are the infrastructure layer on which all African edtech interventions depend. Starlink has expanded to 18 African countries with further expansion in 2025. The UNICEF-ITU Giga initiative targets 500,000 connected African schools by 2030. Device affordability and charging reliability remain constraints. This report maps the infrastructure layer and its evolution.
Content distribution and device access are the infrastructure layer on which every African edtech intervention depends. A platform cannot deliver learning to students who have no devices to access it, no connectivity to receive it, or no reliable electricity to charge their devices. These three constraints (devices, connectivity, electricity) define the outer boundary of what African edtech can achieve at any given moment, and improvements in the infrastructure layer expand the addressable market for all operators simultaneously. The infrastructure has been improving gradually over the last decade as mobile phone penetration has increased, as data costs have declined in many markets, and as electrification has reached new populations. Several recent developments (Starlink expansion to additional African countries, the UNICEF and ITU Giga initiative targeting large-scale school connectivity, the Mission 300 electrification program) promise further improvements that could reshape what edtech interventions can reasonably target. This report maps the infrastructure layer and its evolution.
Mobile phone penetration across Sub-Saharan Africa has reached over 80 percent of adults in most countries, but the distinction between basic phones and smartphones matters significantly for edtech. A basic phone can receive SMS-based content (Eneza Education model) but cannot run apps, display video, or support interactive learning experiences that more sophisticated platforms require. Smartphones are more capable but are more expensive and less widespread, particularly among lower-income households and in rural areas. Smartphone penetration is improving but remains substantially below basic phone penetration in most African countries.
Device affordability is a persistent constraint. Entry-level smartphones in African markets typically cost USD 50 to USD 150, which is significant relative to household incomes in many countries. Pay-as-you-go smartphone financing models (similar to those used for solar home systems) have begun to extend smartphone access to lower-income consumers, but the scale remains modest. Organizations including Mara Phones in Rwanda have attempted to build locally-manufactured smartphones at lower price points, though commercial traction has been limited.
Shared device access is another model that works in specific contexts. Schools with computer labs allow students to access digital content through shared hardware rather than requiring individual ownership. Internet cafes (less common than in earlier periods but still present in many African cities) offer pay-per-session access. Community technology centers operated by government or non-governmental organizations serve similar roles in some areas. These shared access points extend device availability beyond what individual household ownership would support, but they add friction and time constraints that limit their usefulness for structured learning.
Internet connectivity in African countries varies from relatively well-served urban centers with 4G or 5G networks to rural areas with limited or no mobile data coverage. Data costs have been declining in many markets but remain significant relative to incomes. The Alliance for Affordable Internet has tracked African data affordability indices for years, documenting both the progress and the remaining gaps in different countries.
Several specific infrastructure developments are improving the connectivity situation. Submarine cable landings continue to add international bandwidth to African coasts. Terrestrial fiber networks have extended into inland countries, though coverage remains uneven. 4G mobile networks are now available in most urban and peri-urban areas, with 5G deployments beginning in some markets. Broadband Internet services are gradually extending to smaller towns and rural communities, though the pace of deployment varies significantly by country and by operator commercial priorities.
Starlink satellite broadband has emerged as one of the most significant recent developments in African connectivity. The service, operated by SpaceX, has been launched in 18 or more African countries, with further expansion announced in 2025 including Liberia, Niger, and Chad. Starlink provides broadband internet via low-earth-orbit satellites, bypassing the terrestrial infrastructure that has historically constrained rural connectivity. For schools and educational institutions in areas where fiber and mobile data are slow, unreliable, or unavailable, Starlink offers an alternative that can be deployed rapidly with modest installation requirements.
The Starlink model has specific implications for African edtech. Schools that could not previously support online learning due to connectivity limitations can now consider Starlink as either primary connectivity or as backup during outages of primary services. Community Wi-Fi and shared computer labs become feasible in remote settlements when combined with Starlink connectivity and solar power systems. The regulatory environment for Starlink varies by country, with some markets welcoming the service and others requiring navigation of import permits, spectrum rules, and data policies before deployment can proceed. Despite these frictions, Starlink has expanded African coverage substantially through 2025.
The Giga initiative, operated by UNICEF and the International Telecommunication Union, is targeting universal school connectivity globally with specific focus on underserved regions including Africa. The initiative is moving from mapping (identifying school locations and current connectivity status) to large-scale procurement of connectivity services for approximately 500,000 African schools by 2030. The procurement model aggregates demand across multiple schools and countries, giving Giga negotiating leverage with connectivity providers that individual schools or ministries of education could not achieve alone.
The Giga initiative has produced specific connectivity deployments at individual schools and broader commitments from connectivity providers. Full achievement of the 500,000 schools target depends on sustained financing, regulatory cooperation from African governments, and operational execution by connectivity providers who must actually install and maintain the services at each site. The commitment is ambitious but not guaranteed, and progress against the target will be one of the most important indicators of African educational infrastructure improvement.
Reliable electricity is a precondition for all edtech interventions that depend on device charging or institutional equipment. Mission 300, the joint World Bank Group and African Development Bank initiative to connect 300 million Sub-Saharan Africans to electricity by 2030, is relevant to educational infrastructure because it addresses the same constraint from a different direction. School electrification is a subset of the broader electrification challenge and has sometimes been specifically targeted by donor-financed programs supporting educational infrastructure.
Solar power for schools has emerged as one practical response to the electricity constraint. Solar panels with battery storage can power basic lighting, device charging, and projection equipment in schools that lack reliable grid electricity. Several operators including Energicity and various non-governmental organizations have installed solar systems at African schools as part of broader educational infrastructure programmes. The combination of solar electricity and satellite connectivity (or improved terrestrial coverage) represents a template for educational infrastructure that can function in areas where conventional infrastructure is unavailable.
Three indicators will shape the African edtech infrastructure layer. First, whether Starlink continues to expand its African footprint and whether the regulatory environment becomes more favorable or more restrictive in key markets. Second, whether the Giga initiative produces measurable progress toward its 500,000 schools connectivity target, validating the aggregated procurement approach. Third, whether Mission 300 electrification translates into improved school electricity availability alongside its more visible impacts on household access. Infrastructure is the foundation that determines what African edtech interventions can realistically achieve, and its trajectory over the next several years will shape the boundary of the sector's addressable market.