Bridging the Gap Between Discrete-Time Systems Theory, MATLAB, and Real-Time Hardware Implementation!

What you will learn

Students will learn how to implement a digital controller on the Arduino hardware from scratch.

Students will gain an insight to how discrete-time theory, controls, and practical implementation are connected.

Why take this course?

πŸš€ Digital Feedback Control Tutorial with Arduino πŸ€–


Course Headline: πŸŽ“ Bridging the Gap Between Discrete-Time Systems Theory, MATLAB, and Real-Time Hardware Implementation!


Unlock the Potential of Your Digital Controllers! πŸ”“

Learn how to implement real-time digital controllers or compensators on Arduino hardware for feedback control applications! This short tutorial is designed to take the theoretical knowledge of discrete-time systems and controls typically taught in undergraduate and graduate engineering curriculum, and apply them to real-life applications of control systems. 🏫✨

Say goodbye to the typical university project experience that ends with MATLAB simulations and never translates to practical skills. In this course, you’ll work your way from understanding sampled-time systems and Z-transforms all the way to C implementation on Arduino hardware!


πŸ“š Course Description

This engaging tutorial will guide you through the process of designing and implementing real-time digital feedback controllers using the popular Arduino platform. It’s an ideal follow-up to your studies in discrete-time systems, control theory, and signals and systems. πŸ“šπŸŽ™οΈ


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  • Why Digital Control? We’ll kick off with an exploration of the advantages and importance of digital control in various applications.
  • Brief Overview of the Z-Transform: Get acquainted with this critical tool for analyzing discrete-time systems.
  • Discretization of Continuous-Time Controllers: Learn how to transform your continuous-time controllers into their digital counterparts using Tustin’s Method.
  • Implementation of Discrete-Time Systems on Arduino: Bring your theories to life by coding them onto an Arduino microcontroller.
  • Digital Controller Design Process (6 Steps): A step-by-step guide to designing a digital controller from scratch.
  • Brushed DC Motor Speed Control: Apply what you’ve learned in a practical project, including obtaining the transfer function of a 34:1 12V gearmotor and designing a digital controller for it.
  • Real-Time Implementation on the Arduino: Test your design in real-time with an actual hardware setup.

πŸ› οΈ Supplemental Material Included

You’ll have access to comprehensive supplemental materials to support your learning journey:

  • Laplace and Z-Transform tables for reference
  • MATLAB scripts/files to facilitate your design process
  • Arduino code/script for the DC gearmotor speed control demonstration project
  • Experiment apparatus schematic so you can replicate the setup at home or in the lab
  • Useful links to further reading on the derivation and analysis of controllers

✍️ Course Syllabus

  1. Why Digital Control?
  2. Brief Overview of the Z-Transform
  3. Discretization of Continuous-Time Controllers (Tustin’s Method)
  4. Implementation of Discrete-Time Systems on Arduino
  5. Digital Controller Design Process (6 Steps)
  6. Brushed DC Motor Speed Control: Obtaining the Transfer Function
  7. Brushed DC Motor Speed Control: Digital Controller Design
  8. Brushed DC Motor Speed Control: Real-Time Implementation on the Arduino

⚠️ Important Note

Before you enroll, it’s crucial to understand that this course is an advanced tutorial designed for students, engineers, hobbyists, and DIYers who already have a solid foundation in discrete-time systems theory, control theory, linear systems and signals, electronics, or Arduino coding. πŸ•ΉοΈπŸ‘©β€πŸ’»

This is not an introductory course; I will not be covering the foundational theoretical aspects of controller design via root locus, frequency-domain analysis, etc. There will be no assignments or quizzes, making this a flexible learning experience for those looking to complement their existing knowledge and skills. πŸŽ“


πŸ‘©β€πŸ« Who Is This Course For?

This course is perfect for:

  • Students: Who are looking to apply theoretical knowledge practically.
  • Engineers: Seeking to enhance their skills in digital control applications.
  • Hobbyists and DIYers: Eager to build their own real-time feedback control systems.

Enroll now to take your understanding of digital feedback control to the next level with Arduino! πŸš€πŸŽ‰


Please review the syllabus and course requirements before purchasing, ensuring this course aligns with your current skill set and learning objectives. πŸ“πŸ‘€

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