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This module introduces the core concepts of robotics, exploring the definition and functionality of robots, their historical development from ancient mechanisms to modern innovations, and future possibilities including AI integration and ethical considerations. Gain a comprehensive understanding of how robots shape industries, society, and daily life through practical applications.
| What is a Robot? | Quiz | Challenge |
| History of robotics | Quiz | Challenge |
| Future of robotics | Quiz | Challenge |
This module introduces the fundamentals of constructing simple robotic systems. Students will assemble a traffic light using a Microbit kit, program sequences for its operation, and build a motor sensor car with various functionalities. Through hands-on activities, learners will explore basic coding and hardware integration for robotics.
| Traffic Lights Project | ||
| Build your Traffic Lights | Quiz | |
| Microbit Traffic Lights | Quiz | Challenge |
| Assembling the Motor Car | ||
| Build your Move Motor Sensor Car | Quiz | Challenge |
This module introduces students to programming vehicle behaviours using Microbit technology. Through hands-on lessons, learners will explore line-following techniques, distance measurement with sonar sensors, autonomous navigation with obstacle avoidance, and remote control via tilt commands. Each lesson combines coding, testing, and optimisation for practical application on Move Motor cars.
| Line Following and Measurement | ||
| Line Following Car | Quiz | Challenge |
| Move Motor Measure | Quiz | Challenge |
| Autonomous and Remote Control | ||
| Autonomous Car | Quiz | Challenge |
| Tilt Remote Control Car | Quiz | Challenge |
This module focuses on practical coding and engineering projects using Microbits and robotic components. Students will program traffic lights and robot cars to communicate, assemble a Move Motor Sensor Car with a claw attachment, and code the claw's functionality. The lessons include step-by-step guidance and challenges to enhance problem-solving skills.
| Communication Systems | ||
| Traffic Lights and Car Communication | Quiz | Challenge |
| Robotic Claw Extension | ||
| Attach the Move Motor Klaw | Quiz | |
| Robot Car Claw | Quiz | Challenge |
This module introduces the core concepts of robotics, exploring the definition and functionality of robots, their historical development from ancient mechanisms to modern innovations, and future possibilities including AI integration and ethical considerations. Gain a comprehensive understanding of how robots shape industries, society, and daily life through practical applications.
| What is a Robot? | Quiz | Challenge |
| History of robotics | Quiz | Challenge |
| Future of robotics | Quiz | Challenge |
This module introduces the fundamentals of constructing simple robotic systems. Students will assemble a traffic light using a Microbit kit, program sequences for its operation, and build a motor sensor car with various functionalities. Through hands-on activities, learners will explore basic coding and hardware integration for robotics.
| Traffic Lights Project | ||
| Build your Traffic Lights | Quiz | |
| Microbit Traffic Lights | Quiz | Challenge |
| Assembling the Motor Car | ||
| Build your Move Motor Sensor Car | Quiz | Challenge |
This module introduces students to programming vehicle behaviours using Microbit technology. Through hands-on lessons, learners will explore line-following techniques, distance measurement with sonar sensors, autonomous navigation with obstacle avoidance, and remote control via tilt commands. Each lesson combines coding, testing, and optimisation for practical application on Move Motor cars.
| Line Following and Measurement | ||
| Line Following Car | Quiz | Challenge |
| Move Motor Measure | Quiz | Challenge |
| Autonomous and Remote Control | ||
| Autonomous Car | Quiz | Challenge |
| Tilt Remote Control Car | Quiz | Challenge |
This module focuses on practical coding and engineering projects using Microbits and robotic components. Students will program traffic lights and robot cars to communicate, assemble a Move Motor Sensor Car with a claw attachment, and code the claw's functionality. The lessons include step-by-step guidance and challenges to enhance problem-solving skills.
| Communication Systems | ||
| Traffic Lights and Car Communication | Quiz | Challenge |
| Robotic Claw Extension | ||
| Attach the Move Motor Klaw | Quiz | |
| Robot Car Claw | Quiz | Challenge |
See exactly how this course maps to official curriculum specifications
The curriculum does not include official reference codes for individual learning outcomes, so we have assigned a code scheme to make it easier to identify and track coverage.
Students will need one of these devices. Students can share in groups of 2-3 if necessary.
Equipment used in some of the lessons in this course. Items can be shared among students.
This module is one of 7 Transition Year modules you can combine into a complete Year-Long TY Digital Skills Programme, shaped around your timetable and the students in front of you.
Run the same pathway for every student, or set different pathways for different groups. Students also get access to the modules they're not doing in class, which is ideal for the keen ones who finish early or want to explore further on their own time.
Prefer a deeper tech focus? Swap in Advanced Coding or Robotics and Automation. Each module is 10 lessons of 40-60 minutes, leaving room for school events, mid-terms and everything else TY throws at you.
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