Kenya is standing at the edge of one of Africa’s most ambitious clean energy revolutions. Cleaner alternatives like solar electric cooking, LPG, biogas, and hybrid renewable systems are slowly but surely replacing firewood, diesel, and reliance on an unreliable grid in schools across the nation. Financial institutions are aggressively and increasingly joining the market. Policymakers are no longer hesitantly pushing for adoption. On the global front, development partners like AfDB and Clean Cooking Alliance are keenly watching.
There is a growing risk hidden underneath this rushed school solarization and clean cooking acceleration
While the momentum looks impressive on paper, there is a growing risk hidden underneath this hasty acceleration. This is the risk of a treacherous upsurge in poorly designed solar energy systems driven by cost-cutting, aggressive competitive pricing, underpricing, and hasty implementation.
If this trend continues uncontrolled, it can not only cause financial harm to schools but also erode confidence in the renewable energy transition as a whole.

Compromising Engineering Quality
The issue is not solar technology itself. Solar works.
According to the International Renewable Energy Agency, solar photovoltaic costs have decreased by more than 87% globally over the past decade, making solar one of the most affordable sources of electricity in the open market. According to the United Nations Economic Commission for Africa, less than 3% of the world’s solar generation capacity is produced in Africa, despite the continent having over 60% of the world’s finest solar resources.

Current industry trends suggest that the real issue is ‘compromising engineering quality.’ This is often driven by pressure to reduce costs, accelerate timelines, or bypass rigorous testing, leading to severe long-term consequences, including structural failures, safety hazards, and reputational damage.
The true problem that schools should be worried about is EPCs that “compromise engineering quality.”
There is a growing trend where schools are misled to select solar providers based primarily on upfront price rather than long-term system performance, technical design integrity, lifecycle costs, or operational sustainability. In the process, system sizes are being reduced to fit budgets rather than actual energy demand.
In the end, batteries are undersized, monitoring systems are excluded, future load growth is ignored, and operations and maintenance frameworks are overlooked.
The outcome is foreseeable: after a few months of installation, systems that appear inexpensive at the time of procurement turn out to be unreliable, inefficient, and expensive.
Financers at Risk of Significant Reputational Damage
This challenge became evidently apparent during a stakeholder meeting convened by KCB Bank at the KCB Leadership Centre earlier this year. The session brought together financial institutions, policymakers, and clean energy providers to discuss financing models for schools transitioning to renewable energy solutions.
Among the strongest concerns that KCB raised was that of substandard installations
The meeting exposed both the massive opportunity within the country’s clean cooking transition as well as very grave quality risks emerging across the sector.

According to KCB, the bank has already supported roughly 300 schools in integrating clean energy solutions nationwide and now aims to facilitate financing of up to 3,000 schools by the end of 2026. Considering that Kenya has at least 40,000 basic learning institutions nationally, the scale of the transition ahead is immense. But so are the risks linked to hasty and poor implementation.
Among the strongest concerns that KCB raised during the discussions was that substandard installations could damage not only individual schools but also its reputation as the chief financier, government programs, and the wider clean energy industry.
Reputational Investment for Schools
That concern is legitimate. Clean energy financing is now more than just a lending instrument for financial institutions. It is a reputational investment.
Once poorly designed systems fail after installation, schools will not distinguish between the EPC installer, the financier, or the policy framework behind the project. To many principals and school boards, failure will simply mean “solar does not work.” Already, a small sample of school principals who benchmarked in installed schools express this concern.
Solar cooking is not a simple plug-and-play retail product.
That perception could brutally slow adoption on a national scale.
The risk is specifically high in institutional cooking systems, as solar cooking is not a simple plug-and-play retail product. It is an engineered infrastructure system.

Solar procurement is still approached by many schools as though they were purchasing panels and batteries. In reality, institutional solar cooking comprises electrical engineering, thermal analysis, load profiling, future demand forecasting, cooking behavior studies, operational modeling, and long-term maintenance planning.
Some schools are compromising quality for cost.
A school kitchen that serves 500 pupils will operate significantly differently from one that serves 3,500. Boys’ schools will most likely consume more food than girls’ schools. Regional differences also exist in meal portion sizes. Some institutions operate bakeries, posho mills, water pumping systems, laboratories, or workshops that significantly alter energy demand profiles.
Kenya’s clean energy transition will be determined by how many are still working efficiently in 2036.
These realities cannot be adequately captured by historical electricity bills alone, necessitating a thorough feasibility/technical investigation.

Industry experts cautioned against constructing systems solely using historical KPLC invoices during the KCB stakeholder consultations. Monthly consumption bills rarely show dormant or irregular loads in many institutions, especially TVETs and other technical institutes. System sizing may become dangerously wrong in the absence of appropriate data logging and load analysis.
This is precisely where design-led companies like Miale Solar differentiate themselves from cost-led EPC contractors.
Why Miale Solar Advocates Design-led Initiatives
At Miale Solar, system design is approached as a long-term engineering exercise rather than a sales negotiation. The company’s philosophy has been heavily shaped by Swedish engineering influence and European quality standards that prioritize lifecycle performance over short-term procurement savings.
With substandard installation, schools will be forced to pay the true cost of “cheap” solar
That philosophy often places the company at odds with a growing market culture driven by aggressive underpricing and commercial compromise.
In many cases today, schools are being swayed to adopt smaller systems than technical assessments recommend simply because the lower cost appears financially attractive during board discussions. But energy infrastructure does not obey procurement psychology. It obeys physics, load demand, thermal behavior, and operational realities.

An undersized battery bank, for instance, cannot magically support a kitchen load beyond its designed autonomy. An overloaded inverter will sooner or later fail. Poor-quality cabling also creates safety risks. Weak monitoring systems also eliminate visibility into system performance, while inadequate maintenance planning leads to rapid degradation.
Eventually, the school will be forced to pay the true cost of “cheap” solar. Often through replacement costs, operational disruptions, or total system failure, as well as through loss of confidence in renewable energy itself.
The Growing Quality Challenge is a Concern
This rising quality challenge is not unique to Kenya. Africa-wide, rapid solar expansion has created cumulative concern over low-quality installations and compromised engineering standards. As reported by the International Energy Agency, sub-Saharan Africa made up only around 2% of global clean energy investment in recent years, in spite of being home to virtually 20% of the global population.
Such an investment gap often inspires cost minimization over long-term infrastructure resilience.
Back in Kenya, as clean cooking accelerates nationally, the country has to contend with a critical decision point: whether to put a priority on installation numbers or long-term system performance.

The variance matters immensely.
While a poorly designed system will make it possible to achieve short-term adoption targets, it is easy to predict that once schools eventually witness defective solarization and cooking operations, incidences of battery failures, or cumulating maintenance costs, the long-term damage will overshadow the initial noble intentions.
KCB faces a trade-off between installation numbers and long-term system performance.
For this reason, institutional clean energy financing must give priority to quality assurance frameworks.
The need for standardized goods, authorized original equipment manufacturers (OEMs), remote monitoring capabilities, and robust operations and maintenance structures was highlighted during the KCB stakeholder event.

These are not administrative requirements. They are risk management supplies.
Correspondingly, operations and maintenance agreements have become critical since institutional systems demand long-term technical support. Compared to residential rooftop systems, school cooking infrastructure experiences intensive daily usage under highly strenuous operational conditions.
Why Miale Solar Thinks in the Long Term
This long-term thinking has become the fundamental project philosophy at Miale Solar. Miale’s projects have, as a tradition, integrated detailed site assessments, demand profiling, remote monitoring strategies, and lifecycle planning before implementation can begin.
System sizing is virtually impossible without appropriate data logging and load analysis.
In unique scenarios, this approach means walking away from projects where potential clients insist on reducing system specifications below technically feasible thresholds.

That decision may seem commercially problematic in the short term, but it demonstrates that Miale Solar has a deeper understanding of infrastructure responsibility. Because in due course, failed systems lead to significant reputational damage.
It is also unethical, as they damage public trust and institutional confidence. Most significantly, they undercut the integrity of Kenya’s clean energy transition.
Ingredients for a sustainable clean cooking revolution
Kenya already has much of the ingredient required for success: strong renewable energy potential, growing financial innovation, supportive policy momentum, and an increasingly proficient local engineering ecosystem.
Financers and installers should prioritize quality assurance frameworks
However, the next phase of growth will need to be guided by technical discipline rather than hasty installations alone.
Solar systems should not be designed around what schools wish to spend. They should be designed around what institutions, in point of fact, need to operate reliably for the next ten to fifteen years, even after the school principals and board of management retire.
This difference may ultimately determine whether Kenya builds a sustainable clean cooking revolution or merely a short-term KCB-led installation boom.
Ultimately, the success of Kenya’s clean energy transition will not be determined by how many solar systems were installed in 2026. It will be determined by how many are still working efficiently in 2036.






































