Robotics and Physical Computing with Arduino

About this Course

This course introduces students to robotics and physical computing using the Arduino platform. Learners will explore how hardware and software work together to create intelligent systems. Starting with mBlock for visual programming and progressing to Arduino IDE for text-based coding, students will gain hands-on experience building real-world projects. Tinkercad and Fritzing will be used for circuit design and simulation, enabling students to plan and test their ideas before actual assembly. Each module includes practical design and build lessons leading up to a major project that integrates all learned concepts.

Price: ₦30000

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📚 Modules in this Course

🧩 Modules in this Course

Introduction to Robotics & Arduino Fundamentals

 This module introduces students to the exciting world of robotics and the foundational principles behind Arduino-based systems. Learners will explore how robots function, understand the roles of sensors, actuators, and controllers, and begin designing simple circuits using simulation tools like Tinkercad and Fritzing. Through hands-on activities and guided projects, students will learn to program and control LEDs using mBlock, laying the groundwork for future robotics applications. By the end of this module, learners will have built their first functional traffic light controller circuit.

Sensors and Interactive Systems

 This module introduces learners to sensors, the essential components that allow robots and smart systems to detect and respond to their environment. Students will explore how different sensors (such as light, motion, and sound sensors) work and how they can be connected to an Arduino for interactive projects. Using Tinkercad, Fritzing, mBlock, and the Arduino IDE, learners will design and program circuits that react to changes in light or movement. By the end of the module, students will combine both light and motion detection to build a Smart Security Light System that demonstrates automation and sensor integration.

Display, Sound, and Smart Automation

This module introduces learners to how displays, sound components, and automation bring intelligence and interactivity into robotic systems. Students will learn to use I2C LCD displays to show information, buzzers for sound alerts, and sensors to trigger automatic responses.
Through practical activities in Tinkercad, Fritzing, mBlock, and Arduino IDE, learners will design circuits that display data, play alarms, and automate tasks.
The module concludes with a major project — building and packaging a Smart Home Display and Alarm System, where the I2C LCD, buzzer, and sensors work together. Learners will also design the physical housing using cardboard or other materials.

Motors and Movement Control

This module focuses on how motors and servos bring robots to life through movement and automation. Learners will explore the different types of motors used in robotics, including DC and servo motors, and understand how to control their speed and direction using the L293D motor driver. Through guided exercises in Tinkercad, Fritzing, mBlock, and Arduino IDE, students will design circuits, program movement systems, and integrate sensors for smart control.
The module concludes with a main project — building a Smart Toll Gate System, where an IR sensor detects a vehicle and automatically opens and closes a gate using a servo motor. Learners will also design and construct the toll gate model using cardboard and other simple materials.

Advanced Robotics Integration & Final Project (Bluetooth-Based)

This final module combines all previous knowledge of electronics, sensors, motion control, and automation to create advanced Bluetooth-controlled robotic systems.
Students will explore wireless communication using Bluetooth modules (HC-05/HC-06) to control and monitor robotic devices through smartphones, tablets, or PCs.
Through guided lessons using Tinkercad, Fritzing, mBlock, and Arduino IDE, learners will design, program, and refine complex robots that integrate multiple sensors, motors, and actuators.
The module concludes with a Capstone Project — building and showcasing a fully functional Bluetooth-controlled Smart Robot capable of navigation, sensor feedback, and wireless control.