There's a version of this career move that sounds absurd on paper. One role studies how people learn; the other designs systems that keep the lights on. But spend time inside either profession and a shared orientation starts to emerge: both are built around generating reliable knowledge, testing it against reality, and using it to solve problems that matter. The methods diverge sharply, but the underlying habit of mind is closer than most people expect.
What you already bring
The skill overlap between an Educational Researcher and an Electrical Engineer is narrow in count but meaningful in weight.
Performing scientific research is listed as essential for both professions, and this is the one genuine bridge between them. For an educational researcher, this means designing studies, collecting and analysing data on learning systems, and drawing conclusions that can inform policy or practice. For an electrical engineer, it shows up differently: investigating material properties, testing circuit behaviour under varying conditions, or evaluating whether a design meets performance specifications before it goes near a real system. The underlying discipline is the same. You form a hypothesis, you design a test and you interpret results honestly. Engineers who skip this step build things that fail. Researchers who skip it publish things that mislead. The rigour you've developed in your current role is not decorative in engineering contexts.
Beyond formal research process, educational researchers typically develop strong skills in structuring complex information, working within regulatory and institutional frameworks, and communicating technical findings to non-specialist audiences. These are not listed in the shared skill set above because the data maps only direct overlaps, but they are genuinely useful in engineering practice, particularly when working on projects that involve compliance, stakeholder reporting, or cross-disciplinary teams.
What you'd need to pick up
The gap is real and it is substantial. Most of what an electrical engineer does day-to-day sits outside anything an educational researcher would encounter professionally. These gaps fall into two broad categories.
Foundational technical knowledge is where you'd need to start, and there's no shortcut through it. Electricity and electricity principles are both listed as essential knowledge for electrical engineers. These aren't just vocabulary items; they are the conceptual scaffolding for everything else in the role. Understanding how current, voltage, resistance, and power interact, and how those relationships behave in real-world systems, is prerequisite knowledge before any engineering work makes sense. Engineering principles sits alongside these: the formal reasoning frameworks that govern how engineers approach design problems, load calculations, material selection, and system constraints.
Environmental legislation and environmental threats round out the knowledge requirements. Electrical engineers work within a regulatory environment that governs everything from the materials used in components to the environmental impact of power distribution infrastructure. This isn't background knowledge; it's operationally essential.
Technical practice skills form the second cluster. Adjusting and approving engineering designs, working with design drawings, and using technical drawing software are all listed as essential for electrical engineers. These are hands-on competencies that require both training and practice. Technical drawing software, in particular, is something you learn by doing, not by reading about it. The skill of abiding by regulations on banned materials connects back to the legislative knowledge above but is listed separately because it's an active practice, not just awareness.
None of these are soft skills you can approximate from adjacent experience. They require deliberate acquisition.
Where to start
Given the shape of the gap, the most efficient starting point is the foundational knowledge layer, specifically electricity, electricity principles, and engineering principles. These three are the load-bearing concepts that everything else in the role depends on. Without them, technical drawing software and design approval processes are just procedures without context. With them, the rest of the learning has somewhere to attach.
Proskiro has matched book-based learning resources to all three of these knowledge areas, along with environmental legislation. You can explore those resources directly on the electrical engineer profession page, which maps out the full skill set and links to available learning materials for the knowledge-type skills.
Start with electricity and electricity principles before moving to engineering principles. The physics comes first; the design reasoning builds on top of it. Environmental legislation is worth addressing in parallel once you have a working technical foundation, since regulatory knowledge makes more sense once you understand what it's regulating.
Is this transition realistic?
Honestly, it is a significant pivot, and anyone who tells you otherwise is underselling the gap. The technical knowledge requirements are deep and the hands-on skills require structured training, not just self-study. A background in educational research gives you one genuinely valuable asset in scientific research practice, and it gives you habits of analytical thinking that will serve you well once you're inside the technical domain. But those habits won't substitute for the foundational engineering knowledge.
The transition is realistic for someone willing to pursue formal education or structured retraining in electrical engineering, not as a side project but as a primary commitment. The research skills you've built mean you already know how to learn systematically and evaluate sources critically. That's a better starting position than it might look.
If you're serious about understanding exactly what the role requires and where your current profile sits against it, the full skill breakdown for the electrical engineer profession is at proskiro.com/profession/electrical-engineer-c5c4de22.