We will cover why so many African nations are investing in fertilizer production at the same time, what’s actually different about each country’s approach, and what tends to connect these buildouts once the announcements give way to construction.
A continent-wide push, two decades in the making
In June 2006, African Union member states meeting in Abuja adopted a declaration built around a single number: raise average fertilizer use across the continent from 8 kilograms per hectare to 50 kilograms per hectare. The target reflected a stark reality at the time — African farmers were applying roughly a tenth of the world average, and soil nutrient depletion was steadily eroding yields across the continent.
Progress since then has been real but slow. By 2022, average consumption had reached only around 18 kg per hectare — improvement, but still well under half the Abuja target, and a fraction of the roughly 135 kg/ha global average. A global fertilizer price shock between 2019 and 2022 didn’t help: it’s estimated to have driven a 25% decline in African fertilizer consumption before the market began to recover.
In May 2024, eighteen years after Abuja, African heads of state gathered again — this time in Nairobi — for the Africa Fertilizer and Soil Health Summit. The resulting Africa Fertilizer and Soil Health Action Plan 2024–2034 sets a new, more specific commitment: triple the continent’s domestic production and distribution of certified fertilizer by 2034. Unlike some of what came before it, this pledge is being backed by capital already moving into real projects — not just declarations.
The paradox the African Development Bank keeps flagging
There’s a complication worth naming honestly. In mid-2026 analysis, the African Development Bank pointed to what it called Africa’s fertilizer paradox: the continent now produces roughly 30 million metric tonnes of mineral fertilizer annually and possesses real industrial and financial capacity in the sector — yet many African countries still rely heavily on imports, and soils in large parts of the continent remain undernourished regardless. Building bigger ammonia and urea plants doesn’t automatically put more fertilizer in front of more farmers. Logistics bottlenecks, affordability, and — as the five countries below illustrate — a shortage of blending and granulation capacity relative to primary nitrogen and phosphate output are all part of why capacity and consumption haven’t moved together.
Five countries, five different versions of the same story
Nigeria is the clearest import-substitution story in this group. Dangote Group already produces around 3 million tonnes of urea annually and has committed to a $7B expansion aimed at tripling that capacity, while Indorama is adding a third urea line at Eleme with African Development Bank backing. The explicit goal, stated by both companies and Nigerian officials, is to move the country from net importer to net exporter of nitrogen fertilizer.
Ethiopia started from an even more constrained position: no domestic inorganic fertilizer production at all until blending plants were installed between 2014 and 2016, and even those depended entirely on imported DAP and NP compounds. Dangote’s newer commitment here — a complex now budgeted above $4B, up from an initial $2.5B, targeting roughly 3 million tonnes of urea — would give Ethiopia its first domestic nitrogen source at meaningful scale.
Morocco doesn’t fit the import-substitution pattern at all. It holds an estimated 70–75% of the world’s phosphate rock reserves and, through state-owned OCP Group, ranks among the top five global fertilizer exporters. OCP’s $13B green-energy expansion through 2028 is aimed less at Morocco’s own farmers and more at global markets — including custom NPS and NPS+ blends formulated specifically for other African countries’ crops, such as wheat, corn and teff formulations for Ethiopia that have reportedly lifted yields there by up to 37% in field trials. In that sense, Morocco’s phosphate supply underwrites several of the other buildouts described here.
Algeria sits somewhere in between, and shows the paradox at the country level. Its roughly 159 trillion cubic feet of gas reserves already support substantial ammonia and urea production — Fertial and Sorfert combined run to well over 2 million tonnes of urea and 2.5 million tonnes of ammonia capacity — mostly directed at export markets in Western Europe. Domestic NPK blending capacity, by contrast, runs at only around 200,000–250,000 tonnes a year, plus roughly 100,000 tonnes imported — a modest base to support a government drive toward full durum wheat self-sufficiency.
Egypt is the outlier in a different direction: fertilizer application already runs at roughly 540 kg per hectare, around thirty times the continental average, reflecting intensive Nile Delta irrigation. With roughly 11.8 million tonnes per year of nitrogen and phosphate capacity and the world’s ninth-largest fertilizer export value in 2024, Egypt’s challenge isn’t building capacity — it’s managing rising natural gas feedstock costs (recently raised from $4.50 to $5.50 per MMBtu) while newer, more specialised production comes online alongside the established majors.
What tends to connect these projects
Across all five, a pattern shows up repeatedly: the primary nitrogen or phosphate production numbers get the headlines, but the granulation, blending and drying capacity needed to turn that raw output into the specific NPK formulations local crops need is a separate, often less-discussed investment. Nigeria’s own NPK blending output (roughly 733,000 tonnes in 2024) still leans on imported inputs even as domestic urea scales up. Ethiopia’s blending plants were built around augmenting imported product, not processing a new 3 Mt/yr urea complex. Algeria’s blending capacity is a fraction of its ammonia and urea output. In each case, the step that turns bulk nitrogen or phosphate into a bag of fertilizer suited to cassava, teff or durum wheat is where the real bottleneck risk sits — and it’s a granulation and drying question as much as a chemistry one.
That’s the piece of this story Ceylan Machine & Process pays closest attention to: rotary drum granulation, drying and cooling equipment sized to match whatever primary nitrogen or phosphate capacity a market is bringing online, so that new ammonia and urea plants don’t outpace the blending capacity needed to actually get product to farmers. For a closer look at how that plays out in each market, the Nigeria, Ethiopia, Morocco, Algeria and Egypt pages in this series go into the specifics.
Kaan
Kaan Ceylan is a seasoned Machine Designer and Development Manager specializing in heavy-duty process systems for the fertilizer production industry. He serves at Ceylan Machine & Process (Ceylan Machinery) in Mersin, Turkey, which is known for engineering granulation technology and process equipment.

