Robotics

Explore the basic parts of a robot and what each part does, understand how it functions and what its basic components are.

Robotics Level 01: Autonomous Robotics & Computational Thinking

From first circuit to first self-driving robot. Across 22 hands-on sessions, students progress from Arduino fundamentals and simple electronic circuits to building, coding, tuning, and racing their own autonomous line-following robot. Along the way, they develop practical skills in electronics, embedded C++ programming, sensor-based decision-making, circuit prototyping, and engineering problem-solving. Build, code, and race your own autonomous robot, from Arduino basics to intelligent, sensor-driven robotics in 22 hands-on sessions.

Duration
22 sessions across 5 progressive modules, 60 minutes each.
Age Group
Grades 8-10 | Approximately ages 13-16

Aim

To take students from little or no prior electronics or programming experience to independently building, programming, testing, and tuning an autonomous robot. The programme develops foundational skills in: Electronics and circuit design; Arduino-based embedded programming; C++ programming fundamentals; Sensor interfacing; Motor control; Computational and decision-making logic; Prototyping and simulation; Engineering testing and troubleshooting; Iterative design and problem-solving.

Course Description

Kits

Every student receives a dedicated Autonomous Robotics Training Kit designed to support hands-on learning across electronics, programming, embedded systems, and robotics. The kit is used throughout the programme, allowing students to progress from basic circuits to a fully assembled autonomous robot using a common set of reusable components. The learning journey combines Tinkercad-based virtual prototyping with physical hardware, helping students understand and validate concepts before implementing them in the real world.

1. Microcontroller & Electronics Training Kit

  • MicrocontrollerATmega328P-based Arduino Uno R3. The Arduino platform provides an accessible introduction to microcontrollers, programming, digital and analog I/O, and physical computing.
  • Compute & ControlArduino Uno R3, breadboard, jumper wires, reusable electronic components.
  • Input Componentspush-button switches, IR sensors.
  • Output ComponentsLEDs, RGB LED, 7-segment display, buzzer.
  • Students use these components to build and test applications involving LED control, button-based interaction, digital displays, sensor interfaces, alarms, basic automation, and embedded control systems.

3. Software & Simulation

  • TinkerCADbrowser-based circuit simulation and virtual prototyping environment.
  • Arduino IDEprogramming environment used to write, compile, upload, test, and debug Arduino programs.
  • Together, these tools support the programme's core workflow: Simulate → Build → Program → Test → Improve.

2. Autonomous Robot Building Kit

  • Robot Platform2-wheel-drive line-following chassis, DC geared motors, caster wheel, battery mount.
  • Motor ControlL293D motor driver shield.
  • SensorsIR line sensors, supporting up to a 3-sensor array; IR obstacle/proximity module.
  • The robot platform supports projects involving line following, autonomous movement, obstacle detection, sensor-based decision making, motor control, navigation, and autonomous behaviour.

4. Student-Friendly & Sustainable Design

  • Student-Friendlyaccessible Arduino-based platform, breadboard-based beginner-friendly experimentation, easy-to-interface sensors and output devices, progressive learning from simple circuits to autonomous robotics, virtual simulation before physical implementation, suitable for individual and team-based projects.
  • Reusable & Resource-Consciouscomponents can be reused across multiple activities, virtual simulation reduces unnecessary physical prototyping, modular hardware supports multiple projects, components can be repaired, replaced, and reused where practical, encouraging experimentation without relying on disposable project materials.

The Autonomous Robotics Training Kit provides a complete, reusable pathway from foundational electronics to autonomous robotics. Students use the same learning ecosystem to understand circuits, write code, interface sensors, control motors, assemble robotic systems, troubleshoot problems, and progressively improve their designs. The result is a learning experience centred on building, testing, problem-solving, and creating working technology rather than simply consuming pre-built demonstrations.

Course Benefits

  • Explain fundamental electronics concepts including voltage, current, resistance, and PWM.
  • Read, design, and build basic circuits using both Tinkercad and physical breadboards.
  • Write, upload, test, and debug Arduino programs using embedded C++.
  • Use variables, conditional logic, functions, and structured decision-making in programs.
  • Interface and calibrate sensors including IR sensors and push buttons.
  • Control outputs including LEDs, RGB LEDs, displays, buzzers, and motors.
  • Use sensor inputs to create real-time robotic decision logic.
  • Assemble, wire, and troubleshoot a complete autonomous robot.
  • Test, calibrate, and iteratively improve robot performance.
  • Apply computational thinking and engineering principles to solve practical problems.
  • Present and demonstrate a working robotic system.

How It Works

Learning Methodology

SimulateBuildProgramTestImprove

Robotics Level 01 follows a practical engineering cycle. Students first explore concepts through virtual simulation, then transfer their understanding to physical hardware. This progression helps students:

  • Understand before they assemble
  • Experiment without unnecessary component consumption
  • Identify and troubleshoot errors systematically
  • Connect programming with physical outcomes
  • Develop an iterative engineering mindset

By the final modules, students are no longer simply following instructions. They are using sensors, code, electronics, and logic together to make a physical system respond autonomously.

Student Learning Journey

UnderstandSimulateBuildProgramIntegrateTestImproveShowcase

The programme is designed as a progressive journey. Students begin with individual components and simple circuits before gradually integrating them into increasingly complex systems.

The final outcome is not just a functioning robot, but an understanding of how hardware, software, sensors, logic, and mechanical systems work together.

Other Ways to Learn

Autonomous Robotics Skill Lab

Autonomous Robotics as a Skill Lab track provides students with a focused, project-based introduction to embedded systems and robotics. Rather than following the full progression of a term-length programme, the Skill Lab concentrates on the core technologies behind an autonomous robot: Arduino programming, electronics fundamentals, sensor interfacing, motor control, decision-making logic, autonomous navigation, and testing and debugging. Students learn through a practical build target: a self-navigating robot.

Benefits

  • A working robot they have built and programmed
  • Practical experience with the Arduino ecosystem
  • An understanding of sensor-driven automation
  • Experience in testing and debugging physical systems
  • Exposure to iterative engineering and design thinking
  • A foundation for future robotics competitions, STEM projects, IoT learning, and advanced technical programmes

Programme Fit for Universities

Robotics Level 01 is currently structured and paced as a school-level programme for Grades 8-10 and is therefore not positioned as a direct university programme. A university-facing mentor component is not part of the current programme structure. If required, the programme can be extended into a mentoring model in which senior students or university interns support younger learners during robot assembly, programming, troubleshooting, or showcase preparation. For university audiences, this progression could be adapted into a shorter robotics workshop, technical bootcamp, or hackathon-style project, with greater emphasis on system design, optimisation, and independent implementation.

Student Projects

  • Student Project Progression
    Line FollowerEdge AvoiderHand FollowerObstacle Avoider

Kit & Products

Autonomous Line-Follower Robot Kit

The Autonomous Line-Follower Robot Kit is the hands-on robotics platform used in Robotics Level 01: Autonomous Robotics & Computational Thinking. The kit brings together an Arduino Uno R3, motor-control hardware, a 2WD robotic chassis, geared DC motors, IR sensors, and supporting electronic components to enable students to progress from basic circuit experiments to a functioning autonomous mobile robot. It can be used as a companion kit for the full Robotics Level 01 programme or as an independent hands-on robotics platform for learners with some Arduino familiarity.

Key Features

  • Arduino Uno R3-based control system
  • 2WD robotic chassis
  • Geared DC motors
  • L293D motor driver shield
  • IR line-sensing capability
  • IR obstacle/proximity sensing
  • Breadboard-based electronics
  • LEDs and RGB LED
  • 7-segment display
  • Push-button inputs
  • Arduino IDE programming
  • Tinkercad-compatible learning workflow

Ideal For

  • Beginner robotics learners
  • Arduino learners
  • School robotics programmes
  • STEM labs
  • Robotics clubs
  • Hands-on electronics workshops
  • Line-following and autonomous robotics projects

A 22-session hands-on robotics journey that takes students from basic electronics and Arduino programming to building, programming, and competing with their own autonomous robot.

Learn electronics. Write code. Build robots. Solve real-world problems.

Robotics Level 01 is not just a robotics assembly course. It is a progressive computational-thinking and engineering programme in which students learn how hardware, software, sensors, and decision-making logic come together to create an autonomous system. The programme combines virtual simulation, physical prototyping, embedded programming, robotic construction, iterative testing, and a final showcase to create a complete learning journey from fundamentals to application.

  • A student in a yellow shirt showing the robot he built
  • A close-up of a student assembling a small wheeled robot