Engineer rewires Africa’s science education

DAR ES SALAAM: INNOVATION stories are often told as linear tales of brilliance and breakthrough. Yet the journey of Tanzanian telecommunications engineer and education technology entrepreneur Elias Elisante is better understood through a systems lens one that examines not only individual ambition, but also structural gaps in education, technological transitions and policy evolution across Africa.

Rather than focusing solely on personal triumph, Elisante’s trajectory illustrates how lived experience within a constrained education ecosystem can produce solutions tailored precisely to its weaknesses.

His story is not just about building an app; it is about redesigning how science is experienced in classrooms that have long struggled with abstraction, limited laboratory infrastructure and uneven access to quality teaching resources.

Educated entirely within Tanzania’s public schooling system, from primary education through university, Elisante did not observe systemic challenges from a distance. He encountered them daily.

In many government schools across the region, science education leans heavily on theory, rote memorisation and textbook-based instruction. Laboratories are often underequipped, experiments are infrequent and class sizes large.

For a student inclined toward curiosity rather than memorisation, such an environment presents both frustration and opportunity. Elisante’s parents, particularly his father, provided a counterbalance to institutional limitations.

Mathematics was not merely another subject in their household; it was a foundational language of understanding. The belief instilled in him was simple but powerful: mastery of mathematics unlocks clarity in other disciplines.

This philosophy shaped his academic path early, guiding him toward the science stream in lower secondary school and eventually toward Physics, Chemistry and Mathematics (PCM) at Ilboru Secondary School in Arusha between 2011 and 2013.

At Ilboru, a school known for nurturing academically gifted students, Elisante refined his analytical reasoning. But even there, the structural challenge persisted: how do students truly see scientific principles when they are taught largely through static diagrams and verbal explanation?

Engineering Beyond the Curriculum

Enrolling at the University of Dar es Salaam’s College of Information and Communication Technologies (COICT) to pursue a Bachelor’s degree in Telecommunication Engineering, Elisante entered a programme centred on communication systems, signal processing and network technologies.

Software development was not the core emphasis. Yet universities often serve as intellectual crossroads rather than fixed tracks.

For Elisante, exposure to broader technological ecosystems sparked curiosity beyond prescribed coursework.

During his third year, he immersed himself in supplementary learning — studying 3D modelling, computer vision and interactive systems.

These were not mandatory modules; they were self-directed explorations. This distinction is critical.

Many innovators are not shaped by formal curricula alone but by what they pursue voluntarily.

By 2016, Elisante had developed his first complete software product, a milestone that confirmed his orientation toward applied digital solutions rather than purely theoretical engineering.

What distinguished his learning philosophy was methodological: he prioritised understanding mechanisms over memorising outcomes.

Instead of accepting scientific facts at face value, he conducted small experiments to visualise processes.

This habit mirrored the very deficiency he observed in many classrooms — students were often required to recall information without physically or visually interacting with it.

Identifying the Structural Problem: Abstraction in Science Across Tanzania and much of Africa, examination statistics frequently reveal lower pass rates in science subjects compared to arts and humanities.

Physics, in particular, is often perceived as difficult and inaccessible.

The reasons are multifaceted — teacher shortages, limited laboratories, insufficient instructional materials but a core issue lies in abstraction.

When students cannot visualise electric fields, molecular interactions or mechanical forces, these concepts remain distant. Learning becomes symbolic rather than experiential.

Elisante recognised that the problem was not a lack of intelligence among learners; it was a lack of immersive explanation tools. If laboratory access is constrained, could digital environments simulate those experiences? If diagrams are static, could augmented visualisations animate them?

These questions crystallised into the idea behind Smart darasa, later integrated into the broader EKIMA platform.

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From Prototype to Platform

The initial development of Smartdarasa began while Elisante was still a third-year university student.

In 2016, technologies such as Virtual Reality (VR) and Augmented Reality (AR) were not widely understood in Tanzania’s mainstream education sector. Explaining the concept of an interactive textbook where molecules move or circuits animate was challenging.

Recognising that verbal persuasion was insufficient, Elisante adopted a prototyping strategy. Demonstration replaced explanation.

A working model could show stakeholders what words struggled to convey.

He later formed a small team of fellow students, and together they participated in the Entrepreneurship Organisation Global Student Education Award, winning recognition that validated both the concept and its potential. Yet early validation does not guarantee sustainability.

After graduation, economic realities intervened. Team members accepted employment elsewhere as the startup generated little income. Elisante himself received job offers but chose to prioritise his venture.

The decision represented a trade-off between immediate financial security and long-term impact. By 2019, persistence yielded institutional recognition. Smartdarasa won support from the Commission for Science and Technology (COSTECH) Innovation Fund, emerging as a top innovator among over 100 participants.

This support enabled incubation at the University of Dar es Salaam Innovation and Entrepreneurship Centre (UDIEC), where the concept evolved into a Minimum Viable Product ready for user testing.

The shift from prototype to MVP marked a strategic transition: from idea validation to market readiness.

Resilience in Entrepreneurial Cycles

Startup ecosystems often romanticise growth while overlooking attrition.

At one point, Elisante found himself working entirely alone after his last teammate left due to family commitments.

This phase tested not technical competence but psychological endurance. He later described himself metaphorically as a tree that lost all its leaves during drought but flourished when the rains returned.

The analogy reflects the cyclical nature of entrepreneurship — contraction and renewal rather than uninterrupted ascent. In 2021, he assembled a new team.

With collaborative energy restored, Smartdarasa was commercialised and introduced to the market. Subsequent recognitions, including MAKISATU, Vodacom Digital Accelerator and the Mastercard Foundation Award, strengthened the company’s credibility and expanded its networks.

These awards were not merely symbolic. They signalled alignment between Elisante’s solution and broader continental priorities around digital transformation and youth employment.

The Emergence of EKIMA: Strategic Consolidation

Innovation ecosystems often evolve toward consolidation rather than fragmentation. In 2024, participation in additional competitions and forums connected Elisante with founders developing complementary solutions.

Strategic partnership discussions culminated in a 2025 merger between Smartdarasa and Smartcore, forming a unified platform under the name EKIMA.

The merger reflects strategic maturity. Rather than operating as parallel entities competing for limited markets, the integration enabled resource pooling, technology integration and expanded reach.

Today, EKIMA reports engagement with over 500,000 teachers and students and has generated more than 50 direct and indirect jobs for young people.

Beyond user metrics, the company’s growth aligns with national improvements in science education infrastructure and evolving technology policies supportive of digital content development. Policy environment matters.

Without regulatory openness to digital learning materials and curriculum adaptation, even well-designed tools struggle to scale. Social Media as Infrastructure, Not Decoration Elisante approaches social media not as a casual promotional channel but as strategic infrastructure.

For emerging technology firms operating with limited marketing budgets, digital platforms offer cost-effective global visibility.

Through consistent engagement, EKIMA has attracted partners, clients and collaborators beyond traditional geographic boundaries.

In this sense, digital presence becomes an extension of product design — another interface connecting innovation to its audience.

Long-Term Vision and Continental Ambition

EKIMA’s strategic roadmap extends well beyond national borders.

The company aims to create over 100 jobs by 2027 and establish partnerships with major institutions, including collaboration with the Vocational Education and Training Authority (VETA) to address shortages in high quality digital learning content.

By 2035, the ambition is to reach more than 10 million students and support 600,000 teachers across Africa and beyond.

Such targets reflect both optimism and recognition of scale required to meaningfully influence continental science education outcomes.

The vision is grounded in a clear thesis: improving science performance requires transforming how science is experienced.

Interactive 3D simulations, AR-enhanced lessons and virtual experiments do not replace teachers; they augment their capacity to illustrate complex phenomena.

Elisante advocates for deeper integration of technology-driven practical content into national curricula.

He also proposes the establishment of a dedicated Education Innovation Fund to support regulated, high-quality digital learning materials.

The recommendation is significant. Education technology markets can become saturated with low-quality applications if standards are absent.

A regulated innovation fund could incentivise rigorous design, pedagogical alignment and evidence-based impact measurement.

Such systemic collaboration between innovators and ministries would move digital learning from supplementary enrichment to structural component of formal education.

To young people, Elisante’s advice is concise: start where you are, learn continuously and persist despite uncertainty.

Yet beneath this motivational surface lies a deeper principle: innovation emerges not from waiting for ideal conditions, but from engaging imperfect systems with creative intent.

Elias Elisante’s work illustrates how digital tools, when strategically designed, can reduce educational inequities rooted in infrastructure constraints.

By translating abstract scientific principles into interactive digital experiences, he addresses not only academic performance metrics but also confidence, curiosity and cognitive engagement.

In reimagining science classrooms through code, simulations and augmented environments, he is participating in a broader continental shift — one that seeks to ensure Africa’s next generation of scientists and engineers are not limited by the absence of laboratory equipment, but empowered by accessible, immersive technology. His story, therefore, is not simply about entrepreneurial success.

It is about systemic redesign — about transforming how knowledge moves from abstraction into lived understanding. And in that transformation lies the quiet revolution of African educational technology