Simulink Arduino Programming: Master Model-Based Design

Bring your hardware to life with Model-Based Design. Programming Arduino using traditional embedded C in the IDE is great, but visualizing complex control algorithms and state machines can quickly become overwhelming. By combining Arduino hardware with the visual programming power of MATLAB’s Simulink, you can design, simulate, and deploy complex robotics systems without writing thousands of lines of raw code.

This course takes you step-by-step through Simulink Arduino Programming, bridging the gap between software simulation and physical hardware deployment. You will learn to bypass the standard Arduino IDE and use Simulink and Stateflow to graphically design logics that control sensors, actuators, and autonomous systems.

What You Will Learn

• Hardware Fundamentals: Understand the core architecture of the Arduino board, pin configurations, and how to interface physical components.

• Simulink Setup & Integration: Install the Arduino support package and correctly configure the Simulink environment for real-time hardware execution.

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• Sensors & Actuators: Read real-world data from IR sensors and ultrasound sensors, and send precise control signals to servo motors and DC motors using motor drivers.

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• Stateflow Logic Design: Move beyond basic Simulink blocks by implementing Stateflow to handle complex decision-making and graphical programming.

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• Wireless Communication: Interface Bluetooth modules to control your Arduino remotely and scale the level of automation.

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Hands-On Projects

This course is heavily project-based, culminating in three major robotics applications built entirely through Model-Based Design:

1. Obstacle Avoidance Robot: Programmed with both the Arduino IDE and Simulink to demonstrate the efficiency of block-based visual logic.

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2. Line Follower Robot: Build and deploy a complete closed-loop line follower utilizing IR sensor logic and precise motor control.

3. Hybrid Robot Integration: Combine line-following and obstacle-avoidance into a single, cohesive hardware setup.

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Who Is This Course For?

• Engineering Students: Perfect for anyone studying control systems, embedded systems, or robotics who needs practical hardware implementation skills.

• Makers & Hobbyists: Anyone looking to scale up their Arduino projects by using professional-grade engineering tools.

• MATLAB/Simulink Users: Engineers who want to take their continuous and discrete-time models out of the simulation environment and deploy them directly onto physical, low-cost hardware boards.

Why Take This Course?

Instead of just teaching theory, this curriculum gives you the exact blueprint to control physical hardware directly from Simulink. You will learn how to visually construct algorithms, test their behavior, and flash them onto your microcontroller—mastering the exact workflow used in modern automotive, aerospace, and robotics engineering.