Mobility
Move people, robots and services through the city.

Robotics · Autonomy · Sustainable cities
Build, programme and simulate autonomous robots while exploring how mobility, networks and optimisation shape more sustainable cities.
ManoCity for SchoolsThe MANO framework
Four engineering ideas sit at the centre of ManoCity.
Move people, robots and services through the city.
Sense, decide and act without a memorised route.
Connect vehicles, infrastructure and data.
Balance time, energy, distance and resources.
Sustainability outcome
Sustainability is the outcome: students compare what the city used, how long it took and the estimated environmental cost.
Journey time
Time
How long did the mission take?
Energy use
Wh
How much energy did the route require?
Estimated emissions
CO₂e
What was the modelled environmental impact?
System efficiency
Efficiency
Could the same task be completed with less?
The learning loop
Every ManoCity activity follows the same engineering process: understand the problem, build a solution, test it and improve it with evidence.
Build the programming and engineering foundations.
Test autonomous behaviour in a digital city.
Move the same ideas into ManoBot and physical models.
Compare time, energy, distance and estimated emissions.
Refine the system and test a better decision.
Learn → Simulate → Build → Measure → Improve
The city is the classroom
A route is never just a line on a map. It affects travel time, energy demand, passenger movement, road use and environmental impact.
Write clear logic with Python or Blockly.
Watch the robot respond to roads, signals and missions.
Use measured results instead of guessing.
Connect the code to a real engineering outcome.
One connected platform
Start in software, shape the city in 3D, then carry the same engineering ideas into a physical ManoBot challenge.

Write MicroPython, navigate roads, collect passengers and compare mission performance in the ManoCity digital twin.
Open Simulator →
Design buildings, roads and infrastructure, then save the city you want to use in the simulator.
Build in 3D →
Transfer code and engineering ideas to a real ManoBot, physical city map and classroom challenge.
See the Physical City →Sustainability
The fastest route is not always the most sustainable. ManoCity helps learners balance time, energy, emissions and the needs of the wider system.
Built to grow
The same city can introduce programming at school, support systems engineering at university and provide a base for advanced mobility research.
Schools
Learn Python, sensors, navigation and sustainable design through structured missions.
Universities
Connect robotics, embedded systems, autonomy, intelligent transport and data.
Research
Explore digital twins, V2X, optimisation and cooperative urban mobility.

For schools
One platform for coding, robotics, autonomous systems and sustainable-city engineering.