Week 1
Motor control (block coding)
First program: drive forward for 3 seconds.
All programs
Ages 7–13
Robo Pro
Coding with WeDo — bring machines to life.
Enrol in the Robo Pro Home Program Membership Home Program
This is a home/kit-based subscription you build together each week — not our in-centre term classes or workshops (those are booked via Events).
This program needs the STEM Educational Building Home Kit WeDo 2.0 Set No Box — $100.00 (sold separately).In stock View kit →Price$0.00
60+
Curriculum builds
8
Week terms
7
Age tiers covered
What kids learn
About Robo Pro
Robo Pro layers block-based programming on top of the engineering foundations. Students use graphical code to control motors, read sensors, and add real intelligence to their builds. It's the moment machines stop being toys and start becoming robots.
By the end of a term, students can:
- Write block-based programs to control motors and sensors
- Use distance, tilt and colour sensors to make robots respond to their environment
- Combine belts, worm drives and spur gears in one machine
- Design an original build that solves a defined problem
Ready to build with Robo Pro?
Enrol in the Home Program above, or if you'd rather learn in-centre, we run weekly term classes and holiday workshops too.
8-week term
The curriculum journey
A concept-driven progression — every week unlocks a new STEM idea, with the exact builds refreshed each term.
Week 2
Ultrasonic sensors
Robots that detect obstacles and stop themselves.
Week 3
Compound gearing
Speed multiplication with staged gears + code.
Week 4
Multi-motor coordination
Multiple motors coordinated in one program.
Week 5
Tilt sensors & state machines
Program takeoff and landing via device orientation.
Week 6
Precision control
Slow, precise motion for load handling.
Week 7
Colour & reflectance sensing
Self-driving demo — detect a precipice, stop, back away.
Week 8
Design & prototyping
Design an original robot that solves a chosen mission.
Curriculum evolves each term — example builds shown; your child's exact models rotate to keep every term fresh.
Every build in Robo Pro
16 featured models
A cross-section of the 60+ full curriculum — with the exact mechanism each build teaches.
Aircraft
The aircraft propellers are driven by cylindrical and belt drives. A tilt sensor sets the direction of rotation (takeoff or landing).
All-Terrain Vehicle
Movement occurs via a belt drive. For ease of control, movement can be configured using the keys.
Bulldozer
The drive is made on a spur gear. Thanks to the blade in the front, it can rake material into a pile.
Excavator
The excavator bucket drive uses a combination of a worm and two bevel mechanical gears.
Ferris Wheel
Rotation takes place through a combination of a cylindrical drive and two belt drives.
Forklift
A combination of worm and rack-and-pinion gears is used.
Helicopter
A bevel gear rotates the main and auxiliary propellers of the helicopter.
Motor Boat
A combination of cylindrical and bevel gears powers movement; a cylindrical gear also rotates the propellers at the rear.
Motorcycle
The drive is made on a bevel gear. The steering wheel can be turned.
Road Roller
The drive is made on a belt drive. Start-up is configured by a signal from a distance sensor.
Robot Cleaner
The drive combines spur and bevel gears; the brushes are driven by a belt drive.
Smart Car
The drive combines spur and bevel gears. When moving, the car recognises the appearance of a precipice in its path.
Tank
The tank is driven by a worm gear. A distance sensor is installed to detect obstacles.
Tower Crane
A drive on a cylindrical transmission; the crane boom rotates around its axis.
Waiter
The model operates via a multi-link transmission system.
Beyblade
Due to a two-stage gearbox the speed increases, giving the initial rotation to the beyblade.
