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Egypt is expanding the use of solar-powered irrigation and modern water-management systems as it seeks to protect agricultural production
Climate & SustainabilityNorth Africa

Egypt Scales Solar Irrigation as Water Scarcity Raises Pressure on Agriculture

Egypt is expanding the use of solar-powered irrigation and modern water-management systems as it seeks to protect agricultural production

September 25, 2026

Egypt is expanding the use of solar-powered irrigation and modern water-management systems as it seeks to protect agricultural production from rising water scarcity, drought and climate pressure, with the country now presenting collective solar irrigation as a model that could be adapted across Africa.

The approach was highlighted by the Food and Agriculture Organization (FAO) and Egypt’s Ministry of Water Resources and Irrigation at the 17th session of the United Nations Convention to Combat Desertification (UNCCD COP17). The partners presented Egypt’s experience with collective solar-powered modern irrigation as a practical tool for improving water productivity and strengthening the resilience of smallholder farmers.

Under the model, a single solar-powered water-lifting station serves several farmers through a shared distribution network. This is particularly relevant in Egypt, where agricultural land is highly fragmented, and individual farmers can face high costs when investing separately in modern irrigation and energy infrastructure. Collective systems allow neighbouring farmers to share the investment and operating costs while improving the efficiency of water and energy use.

Egypt's push is also moving from policy into projects on the ground. In January 2026, the government inaugurated the Al-Zahraa solar power station in Aswan, a system serving collective irrigation units across 480 feddans (approximately 202 hectares). The Sustainable Agricultural Investments (SAIL) programme is implementing 17 solar power stations expected to provide clean energy for collective irrigation across 3,528 feddans (approximately 1,482 hectares) in Aswan. The government says the systems are intended to reduce reliance on costly conventional energy, improve irrigation efficiency and support smallholder incomes.

The model is also being linked to broader irrigation modernisation. Egypt's Ministry of Water Resources and Irrigation is converting some irrigation canals to pressurised pipelines, expanding solar-powered systems and establishing water-user associations that involve farmers in the planning, operation and maintenance of irrigation infrastructure. In Upper Egypt, a project covering Assiut, Sohag and Qena combines modern irrigation, applied research, farmer field schools, land consolidation and support for small enterprises.

There are measurable benefits from individual projects. In Menoufia, a Schneider Electric and Crédit Agricole Egypt Foundation initiative replaced a diesel irrigation pump with a 30-kilowatt solar photovoltaic system. The project is designed to generate about 65 MWh of clean energy annually, save up to 10,000 litres of diesel per year and cut carbon emissions by approximately 32.5 tonnes. It is expected to pump more than 890,000 cubic metres of water annually and improve water access by 80% across agricultural land.

The Schneider Electric project illustrates a broader direction in Egypt's agricultural policy. In January, the government signed a separate agreement with Schneider Electric under the NWFE (Nexus on Water, Food and Energy) programme, covering 2026–2029. The partnership includes solar energy and Internet of Things (IoT) technologies intended to improve resource efficiency and support climate-resilient agriculture.

FAO says the Egyptian approach rests on several interconnected pillars: water security, renewable energy for agriculture, collective irrigation to address land fragmentation, circular agriculture, efficient resource use and stronger community governance. The organisation also highlighted the potential for the model to be adapted in other African countries facing drought, land degradation and water scarcity.

For Egypt, the urgency is particularly high because agriculture operates under severe water constraints. Improving the productivity of every unit of water therefore becomes as important as expanding cultivated land. Solar energy can address part of the energy-cost challenge, while pressurised irrigation, improved water distribution and farmer participation can reduce losses and improve the reliability of irrigation.t

NBF Insight

Egypt's solar irrigation strategy shows how energy, water and agriculture are becoming one investment equation.

The objective is not just to replace diesel pumps with solar panels. The larger opportunity is to combine renewable energy with modern irrigation, shared infrastructure, better water governance and farmer participation.

For smallholders, collective systems can lower the cost of accessing modern technology that may be too expensive for an individual farmer. For governments, they offer a way to improve water productivity while reducing agriculture's exposure to energy-price pressures.

Egypt's experience also offers a potentially important lesson for Africa: climate-smart agriculture does not always require a completely new farming system. It may simply mean redesigning the infrastructure that delivers water, energy and technology to the farm.


TopicsSolar Irrigation · Egypt Agriculture · Water Management · Climate-Smart Agriculture · Renewable Energy

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