STEM Education Innovation
Practical science, low-cost digital labs, and engineering education designed for schools without traditional lab budgets.
- Practical science learning
- Low-cost digital labs
- Virtual experimentation
- Engineering education
- Maker-style projects
- Curriculum-aligned project banks
Why STEM, separately from the other pillars
Interactive systems, AI tutoring, and assessment all contribute to STEM learning — but STEM has constraints that deserve their own pillar.
Science and engineering education depend on doing: measuring, building, iterating, breaking things and figuring out why. African secondary schools often cannot run that loop. Equipment costs, consumable chemistry supplies, broken instruments that take a year to replace. The result is a generation of science graduates who passed the exam but never ran an experiment.
The pillar exists to answer one question: what is the minimum-cost, maximum-impact way to give Ethiopian secondary students authentic experimental experience?
What we’re researching
- Practical science learning. Curriculum-mapped experiments that can run on classroom equipment most schools already own, plus a phone — versus the equipment they wish they had.
- Low-cost digital labs. Browser- or phone-based instruments (data loggers, oscilloscopes, microscopes) that replace specific lab kit for specific exercises.
- Virtual experimentation. Where physical work is impossible (radiation, gene editing, expensive optics), high-fidelity simulations that let students gain calibrated intuition.
- Engineering education. Bringing problem-solving and design-thinking into the science classroom — small, achievable design challenges that connect physics and math to something a student built.
- Maker-style projects. Sub-$10 builds (paper microscopes, simple sensors, foldable mechanisms) that produce a real artifact the student takes home.
- Curriculum-aligned project banks. A growing library of cleaned-up, classroom-tested STEM projects with materials lists, time estimates, and assessment rubrics — so teachers can adopt without authoring from scratch.
Where we are
This pillar is exploring. The immediate work is a literature scan of low-cost STEM education projects (Foldscope, paper centrifuges, smartphone microscopy) and an inventory of what Ethiopian schools actually have available. From there we’ll prototype 3–5 turnkey projects with materials sourcing within Ethiopia.
If you’re a science teacher, a maker-space lead, or an organization with experience deploying low-cost STEM kits, we want to hear from you.