Electrical Power & Protection


Engineering resilience into Africa’s energy future

August 2026 Electrical Power & Protection

Africa’s energy transition is often discussed in terms of generation capacity, investment pipelines and megawatts added to the grid. While these metrics matter, they only tell part of the story. The real challenge facing the continent is not simply producing more electricity, but building resilient and integrated infrastructure systems that can support long-term economic and social development in increasingly complex environmental conditions.

Across Africa, countries are under pressure to expand access to affordable and reliable energy while simultaneously responding to climate volatility, rapid urbanisation, industrialisation and growing infrastructure demands. In this context, infrastructure projects can no longer be viewed as isolated engineering exercises. They must be designed as long-term development enablers.

This is particularly true in the energy sector. Hydropower is one of the most important renewable energy opportunities available to many African countries. When designed responsibly and strategically, it offers stable baseload power, reduced dependence on imported fossil fuels and the potential to unlock economic growth across multiple sectors. However, modern hydropower infrastructure demands a far more integrated approach than it did even a decade ago.

Resilience at the centre of infrastructure delivery

Resilience must sit at the centre of infrastructure delivery. That means engineering projects that can withstand changing climatic conditions, accommodate future demand and operate sustainably over decades. It means accounting for sedimentation, flood risk, seismic activity and environmental impacts from the earliest design stages. It also means recognising that infrastructure is ultimately about people, the communities, businesses, schools, hospitals and industries that depend on reliable access to energy.

The Jiji and Mulembwe hydropower scheme in Burundi demonstrates what this integrated approach can look like in practice. Together, the two hydropower plants will add 49,5 MW of renewable energy capacity to Burundi’s national grid, increasing the country’s installed generation capacity from 60 to 109,5 MW. Supported through funding partnerships involving the World Bank, European Union, African Development Bank and European Investment Bank, the approximately $320 million development represents one of the country’s most significant recent infrastructure investments.

Zutari was responsible for the detailed design and construction drawings for both schemes, including the dams, tunnels, penstocks, powerhouses, permanent access roads and supporting infrastructure. The project comprised a 32,5 MW plant on the Jiji River and a 17 MW plant on the Mulembwe River, each incorporating desilting structures, low-pressure pipelines, 1,1 km transfer tunnels, and power stations housing three horizontal Pelton turbines. After a construction period of six years, both plants were successfully commissioned in 2025 and are now connected to the Burundi grid, providing reliable renewable energy.

The significance of the projects extends well beyond the megawatts produced. From the outset, resilience and long-term sustainability formed part of the engineering approach. Extensive hydrological, sedimentation, geotechnical and seismic studies informed the design process, helping ensure the infrastructure could operate effectively within the realities of the local environment. The project also incorporated climate-related safety considerations into flood modelling to account for the increasing uncertainty associated with future rainfall patterns and extreme weather events.

Climate adaptation embedded in engineering

This kind of forward-looking design philosophy is becoming increasingly important across Africa. Infrastructure built today must be capable of performing under conditions that may look very different in 20 or 30 years’ time. Climate adaptation can no longer be treated as a secondary consideration or compliance requirement; it must be embedded within the engineering process itself.

Energy infrastructure does not operate in isolation. Large-scale projects often require supporting ecosystems that enable long-term operational success and community benefit. In Burundi, this included not only the dams, tunnels, penstocks and powerhouses associated with the hydropower schemes, but also permanent access roads, housing and support infrastructure. These elements are sometimes viewed as secondary components, yet they are essential to creating infrastructure systems that are functional, maintainable and socially sustainable.

For engineering partners working across Africa, this demands multidisciplinary collaboration on an unprecedented scale. Engineers, environmental specialists, hydrologists, planners, project managers and community stakeholders must increasingly work together to deliver infrastructure that is technically sound, socially responsive and economically viable.

Immense renewable energy potential in Africa

The continent’s infrastructure future will depend on integrated thinking. Africa possesses immense renewable energy potential, but unlocking it will require more than financing and technical capability. It will require partnerships built on shared developmental objectives, strong local understanding and a commitment to infrastructure that creates lasting human value.

Projects such as Jiji and Mulembwe also demonstrate how infrastructure investment can contribute to broader national development priorities. Reliable electricity supply supports industrial productivity, improves healthcare and education outcomes, enables digital connectivity and creates conditions for economic participation and job creation. Energy infrastructure therefore becomes not only an engineering asset, but a catalyst for inclusive growth.

As African countries continue navigating the energy transition, the focus must stay on infrastructure that is resilient, adaptable and people-centred. Success will not be measured solely by the scale of generation delivered, but by the long-term impact infrastructure has on communities, economies and national development trajectories. Engineering has a role to play in shaping that future: not simply by building assets, but by helping create systems that allow societies to thrive sustainably over generations.

For more information contact Cambridge Mokanyane, Zutari, +27 12 427 2000, [email protected], www.zutari.com




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