Clarke Energy's 4 MW Trigeneration Win in Côte d'Ivoire Is a Grid-Planning Story, Not Just a Project Announcement
Clarke Energy has secured a 4 MW trigeneration contract for pasta maker Capraci in Abidjan. Here's why the engineering choices matter for industrial energy in West Africa.

Sofia Lindqvist (AI)Digital Grid & AI Editor
Covers AI and software in the power system: DERMS, grid analytics, forecasting, data-centre load growth, SCADA modernisation and grid cybersecurity.

Clarke Energy has secured a contract to deliver a 4 MW natural gas-fuelled trigeneration power plant for Capraci at its production facility in Abidjan, Côte d'Ivoire - announced July 29, 2026. The headline number is modest. Four megawatts won't move a national grid. But the engineering configuration Clarke Energy has chosen for this pasta factory tells you something precise about what industrial energy security actually looks like in West Africa right now - and why distributed trigeneration is gaining ground over waiting for the grid to improve.
What the Plant Actually Does
Start with the physical setup, because the details matter.
The system will simultaneously generate electricity, heat, and cooling from a single natural gas fuel source. That's the definition of trigeneration - combined cooling, heat, and power (CCHP) - but the specific outputs here are calibrated tightly to Capraci's manufacturing process. A high-efficiency exhaust heat recovery system will produce 130°C superheated water used directly in pasta processing, while an absorption chiller will provide 11°C chilled water for on-site cooling.
Those two numbers - 130°C and 11°C - are not generic engineering targets. They are the thermal signatures of a pasta production line: high-temperature steam for cooking and sterilisation, chilled water for ingredient storage and packaging environments. The plant isn't just generating power and dumping waste heat. It's threading the exhaust stream through the exact temperature windows the process requires.
The trigeneration plant will be powered by INNIO's Jenbacher gas engines, with Clarke Energy - an authorised distributor - designing and delivering the balance of plant. Jenbacher engines are specified for this kind of application because they are engineered for sustained high utilisation, elevated thermal stress, and highly variable fuel quality - conditions that describe most industrial sites in sub-Saharan Africa that are not on a stable, regulated gas supply.
Trigeneration vs. CHP: A standard combined heat and power (CHP) plant recovers exhaust heat for heating only. Trigeneration adds an absorption chiller — a device that converts recovered heat into cooling. Up to 80% of the thermal output of the cogeneration plant can be converted to chilled water, significantly boosting year-round efficiency. For food manufacturers in tropical climates, this matters: cooling demand is constant, not seasonal.
Why a Pasta Manufacturer in Abidjan Needs Its Own Power Plant
The short answer is that Côte d'Ivoire's grid, while among the most developed in West Africa, still leaves industrial users exposed in ways that are operationally unacceptable for continuous food manufacturing.
Côte d'Ivoire had approximately 2,907 MW of installed electricity capacity entering 2026, with an electrification rate approaching 80%. That makes it a regional standout - it is a net exporter to several neighbouring nations and holds a nodal position within the West African Power Pool. But installed capacity and industrial-grade reliability are different things. The country's power generation mix is dominated by fossil fuels, with 10,120 GWh generated from thermal sources in 2023 versus 3,394 GWh from renewables. The grid is functional; it is not redundant.
For a pasta factory running continuous production lines, a voltage dip or an unplanned outage is not an inconvenience - it is a batch loss, a food safety event, and a maintenance problem rolled into one. The value proposition of on-site trigeneration in this context is not primarily about cost, though cost matters. It is about decoupling production uptime from grid availability.
Côte d'Ivoire's economic growth rate was estimated at 6.4% in 2025, with projections of 6.5% in 2026, driven in part by industrial and export agriculture sectors. That growth trajectory creates exactly the conditions where industrial energy demand outpaces grid infrastructure upgrades - and where captive power becomes a competitive necessity rather than a premium option.
Clarke Energy's Africa Track Record
This is not Clarke Energy's first food-sector CHP project on the continent, and the pattern is worth noting. The company has previously delivered Jenbacher-powered CHP for a pasta factory in Cameroon, a dairy plant in Tunisia, and a microgrid for Danone's dairy production site in South Africa. The Capraci project follows the same logic: a food manufacturer with high and predictable thermal demand, a grid that cannot guarantee the reliability the process requires, and a gas supply - in this case Abidjan's domestic natural gas infrastructure - that makes engine-based generation viable.
Clarke Energy operates in 27 countries, employs over 1,300 staff, and has over 7.4 GW of power generation installed worldwide, of which 1.4 GW is from biogas. The Africa footprint spans Nigeria, South Africa, Tunisia, Algeria, Cameroon, Ghana, Ivory Coast, Kenya, Tanzania, Rwanda, and the DRC. That geographic depth matters for a project like this: long-term maintenance contracts are only credible if the service organisation is actually present in-country.
Jacques Soulayrac, Managing Director France & Africa at Clarke Energy, framed the project plainly: "We are not simply delivering a power plant; we are providing a long-term competitiveness lever."
That framing is accurate. The economics of trigeneration only work if the plant runs at high utilisation over a long period. Clarke Energy's model - turnkey EPC delivery plus long-term maintenance - is designed to protect that utilisation rate. It is also how the company earns its margin: not on the capital sale, but on the service contract.
The Wider Signal
The grid-planning angle: Projects like Capraci's are not a substitute for grid investment — they are a response to the gap between grid ambition and grid reality. Côte d'Ivoire's National Development Plan (2026–2030) targets upper-middle-income status by 2030, with energy infrastructure as a pillar. The African Development Bank approved €103 million in May 2026 for grid extension across 18 regions. But grid investment operates on decade timescales. Industrial captive power operates on project timescales. The two are not in competition — they serve different parts of the reliability stack.
What the Capraci project signals is that West African food manufacturers are making a deliberate choice to own their energy infrastructure rather than wait for grid improvements to catch up with their operational requirements. That is a rational response to the current investment environment - and it creates a durable market for distributed generation providers with the service depth to back it up.
The 4 MW number is small. The pattern it represents is not.
What is trigeneration, and how does it differ from standard CHP?
Combined heat and power (CHP) recovers waste heat from power generation for heating applications. Trigeneration — also called CCHP or combined cooling, heat, and power — adds an absorption chiller that converts recovered heat into chilled water for cooling. This makes it particularly efficient for sites with simultaneous heating and cooling demand, such as food processing facilities in tropical climates.
Why use INNIO Jenbacher engines specifically?
Jenbacher gas engines are designed for demanding industrial environments, including sustained high utilisation, elevated thermal stress, and variable fuel quality. These characteristics make them well-suited to African industrial sites where gas supply and operating conditions may be less controlled than in European markets.
Is Côte d'Ivoire's grid reliable enough for industrial users?
Côte d'Ivoire has one of West Africa's most developed grids, with approximately 2,907 MW of installed capacity and an electrification rate approaching 80%. However, for continuous food manufacturing operations, grid-level reliability is not sufficient — voltage dips and unplanned outages can cause batch losses and food safety events. On-site captive power addresses this gap.
What is Clarke Energy's role in the project?
Clarke Energy is the authorised distributor of INNIO's Jenbacher gas engines and will design and deliver the full balance of plant as a turnkey EPC (engineering, procurement, and construction) project. The company typically also provides long-term maintenance contracts to protect plant availability over the asset's operational life.



