Robotics & Engineering
Build it, code it, test it: hands-on robotics with snap-together building kits, from first motors to Python-controlled robots.
- Grades
- Grades K–12
- Group size
- 16–24 students, working in teams of 2–3 per kit
- Length
- 6–12 weeks, or a one-week summer camp
- Where it runs
- School-day enrichment, After-school, Weekend academy, Summer camp, Library / community center
Your child builds real machines from snap-together bricks, motors and sensors, then codes them to move and react. Young kids use picture blocks; teens use Python.
Children build real machines from snap-together bricks, motors and sensors, then bring them to life with code. Younger students use picture and block coding; older students move to Python and solve competition-style engineering challenges in teams.
Who it’s for
Grades K–2
Big-brick builds, gears and a first motor, with picture-block coding.
Grades 3–5
Robots with motors and sensors, coded with blocks to solve small challenges.
Grades 6–8
Engineering design with sensors and attachments, moving from blocks to Python.
Grades 9–12
Python-controlled robots, sensor data and a competition-style capstone.
Grade tracks
Each track has its own modules, projects and final showcase.
Build & Move
Big-brick builds, gears and a first motor — plus picture-block coding to make things move.
Robot Builders
Motors, sensors and block coding: robots that move, react and solve small challenges.
Robotics Engineers
Engineering design with motors and sensors, coded with blocks then early Python, ending in a team mission challenge.
Robotics with Python
Python-controlled robots, sensor data, smoother control and a competition-style capstone built in teams.
Play & practice: 12 Robotics games
Free browser games built from this program’s lessons — grouped by grade track. No sign-up, nothing leaves your device.
Build & Move Grades K–2
Robot Builders Grades 3–5
Robotics Engineers Grades 6–8
Robotics with Python Grades 9–12
Why it matters now
Learning by making
Children remember what they build with their own hands.
Coding with a purpose
Code that moves a real robot makes abstract ideas concrete.
Engineering habits
Plan, test, measure and improve — useful far beyond robotics.
Teamwork
Every robot is a team effort with shared roles and decisions.
How the program is built
Build
Snap-together bricks, gears, motors and sensors.
Code
Picture blocks for young builders, Python for teens.
Test
Run it, measure it, see what happens.
Improve
Change one thing at a time and try again.
Present
Show the robot and explain how it works.
The engineering design cycle
Every challenge follows the same loop real engineers use.
- 1
Ask
What problem are we solving?
- 2
Plan
Sketch and choose an idea.
- 3
Build
Put the robot together.
- 4
Code & test
Run it and measure what happens.
- 5
Improve
Change one thing and try again.
What students do
What students leave with
- A moving machine they designed
- A robot that reacts to sensors
- Block or Python programs that control it
- An engineering notebook of tests and changes
How students benefit
Confidence
Seeing their own robot move is a big “I can do this” moment.
Problem solving
Students learn to break problems down and test ideas.
Coding skills
Block coding grows into Python as students get older.
Teamwork
Building in teams of 2–3 builds communication and patience.
For parents: what this means for your child
- Your child builds something they can touch, see move and proudly show you.
- They learn to plan, test, fail safely and try again — the engineering design cycle.
- Coding starts with picture blocks and grows into real Python as they get older.
- Everything is team-based, so they practise sharing ideas, roles and credit.
Learning that continues at home
- Robot showcase day for families
- Take-home challenge cards (paper building ideas)
- Photos and short videos of what each team built
Safety rules built in
- Small parts are used only with age-appropriate kits and adult supervision
- Kits stay at the school or site — nothing to buy for home
- No accounts or personal data needed for the coding apps used in class
- Clear tidy-up and kit-check routines at the end of every session
Teachers keep the know-how
- Before: kit orientation, building basics and classroom routines
- During: co-teaching of build-and-code sessions
- After: challenge cards, build guides, rubrics and a club continuation plan
Where these skills can lead
People students meet
Open to every child
- Kits stay at the school or site — nothing to buy for home
- No prior building or coding experience needed
- Teams mix experience levels
- Girls and underrepresented students actively encouraged
For schools and funders
Pilot targets, who provides what, and which grants this program fits.
| What we measure | How | Pilot target |
|---|---|---|
| Students per cohort | Enrollment | 16–24 |
| Completion | Attendance records | 80%+ |
| Working robot per team | Showcase demo | 90%+ of teams |
| Engineering-process skill | Engineering notebook rubric | 75%+ |
| STEM interest | Pre/post student survey | 20%+ growth |
| Teachers enabled | Teacher readiness checklist | 1–2 per cohort |
The school or partner provides
- Students and a room with tables and power
- Tablets or laptops for coding where available
- Secure storage for kits
- A teacher or staff point of contact
- Parent communication and permissions
We provide
- Curriculum, challenge cards and build guides
- Instructor delivery / co-teaching
- Kit guidance (or kits where funded)
- Teacher training and toolkit
- Showcase support and outcome report
Funding fit
Sample timeline
| When | What happens | Result |
|---|---|---|
| Weeks 1–2 | Kit check, room setup, teacher orientation, team forming | Kits ready, teams set |
| Weeks 3–8 | Build-and-code challenges, getting harder each week | Engineering notebooks |
| Weeks 9–10 | Final team challenge and family showcase | Working robots and demos |
| After | Teacher handoff and next-club plan | Outcome report |
Programs can use LEGO® Education kits or similar snap-together robotics kits. LEGO® is a trademark of the LEGO Group, which does not sponsor or endorse this program.
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About: Robotics & Engineering