Technical education
Technical Education
Design learning artifacts that survive real classrooms and maker spaces: scaffolded challenges, reproducible BOMs, safety-aware workflows, realistic timing, realistic failure modes–with instructor notes that anticipate questions.
Working together
Most projects start by anchoring uncertainties, timelines, and the next credible demo or pilot milestone.
Based in Ottawa, Ontario. Supporting local and remote clients.
Problems this helps solve
- Curriculum sketches need tactile outcomes that reinforce theory.
- Kits stall because cables, toolchain install, or debug paths were glossed over.
- Institutions must thread safety and maintainability–not just wow demos.
- You must train facilitators unfamiliar with fabrication or firmware.
Typical deliverables
- Module outlines pacing build vs. conceptual beats
- Student-facing instructions with checkpoints and differentiation notes
- Instructor troubleshooters keyed to observable symptoms
- BOM spreadsheets with substitutions and reorder guidance
- Assessment rubrics aligning project evidence to learning objectives
Tools and process
- Progressive disclosure: sandboxed examples advancing toward open-ended prompts
- Toolchains chosen for reproducibility across lab machines where possible
- Physical fabrication when it strengthens–not distracts–from learning objectives
- Evaluation philosophy explicit: formative vs. summative checkpoints
Who it is for
- Schools and nonprofit STEM programs iterating new sequences
- Corporate L&D prototyping technical onboarding labs
- Makerspaces training volunteer facilitators
Example project types
- Wearable sensing intro using modest parts counts
- CNC fundamentals path with jigged first cuts
- Robotics kinematics rigs pairing visualization with measured motion
- Cloud intro labs centered on humane API ergonomics–not buzzwords
Start a project conversation
Share constraints, timelines, and the outcome you want to prove next.