
Industrial Mechatronics Course
Master every layer of industrial mechatronics — from sensors and actuators to PLCs, robotics, and Industry 4.0 networking. This training gives you the hands-on technical knowledge employers demand on the plant floor. Build real competency across electrical, mechanical, and control systems in one comprehensive programme.
What you will learn:
You will gain a solid foundation in mechatronic system architecture, covering electrical fundamentals, signal types, and mechanical subsystems. You will learn to select and calibrate industrial sensors, operate hydraulic and pneumatic actuators, and programme PLCs using ladder logic and structured text. The course covers closed-loop PID control, industrial fieldbus and Ethernet networking, and robot programming for manufacturing tasks. You will also study system commissioning, preventive maintenance, functional safety, and Industry 4.0 smart manufacturing concepts. By the end, you will be equipped to integrate, commission, and maintain complete industrial mechatronic systems.
How you study in practice Industrial Mechatronics Course
How you practise Industrial Mechatronics Course
For businesses looking to train their team
With Dedika for businesses, the course includes exercises and examples tailored to your own business and the way your company needs.
Course content
8 Chapters • 40 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsFoundations of Mechatronics Systems
Foundations of Mechatronics Systems
Lesson 1 • System Integration Overview
Introduces the architecture of a complete mechatronic system and the interfaces between subsystems. Sets the integrative perspective reinforced in every subsequent chapter.
Lesson 2 • Mechanical Subsystem Fundamentals
Covers basic mechanical elements found in industrial machines. Connects mechanical behaviour to sensor and actuator selection in later chapters.
Lesson 3 • Electrical Fundamentals for Mechatronics
Reviews DC and AC circuit theory essential for powering and controlling mechatronic devices. Provides the electrical foundation for sensor and actuator chapters.
Lesson 4 • Introduction to Mechatronics Concepts
Defines mechatronics and its role in modern industry. Establishes vocabulary and system-thinking mindset used throughout the course.
Lesson 5 • Signal Types and Data Representation
Distinguishes analog and digital signals and explains how physical quantities are encoded. Prepares students for sensor interfacing and control logic topics.
Chapter 2HideHide detailsSee detailsSensors and Measurement Technology
Sensors and Measurement Technology
Lesson 1 • Temperature and Environmental Sensors
Examines thermocouples, RTDs, and environmental detectors used for process monitoring. Reinforces signal conditioning concepts introduced in Chapter 1.
Lesson 2 • Sensor Principles and Classification
Explains transduction principles and sensor taxonomy. Grounds students in how physical phenomena are converted to electrical signals.
Lesson 3 • Force, Pressure, and Flow Sensing
Addresses strain gauges, pressure transducers, and flow meters common in industrial processes. Builds measurement skills applied in hydraulic and pneumatic chapters.
Lesson 4 • Sensor Calibration and Signal Conditioning
Teaches calibration procedures and analog signal conditioning circuits. Ensures measurement accuracy before data enters the control system.
Lesson 5 • Position and Motion Sensors
Covers encoders, resolvers, and proximity devices used for position and velocity feedback. Directly supports actuator control covered in the next chapter.
Chapter 3HideHide detailsSee detailsActuators and Power Transmission
Actuators and Power Transmission
Lesson 1 • Electric Motor Types and Characteristics
Compares DC, AC induction, stepper, and servo motors by torque-speed behaviour. Provides the actuator knowledge base for drive and control chapters.
Lesson 2 • Motor Drive and Power Electronics
Covers H-bridges, variable frequency drives, and PWM techniques for motor control. Bridges electrical fundamentals to practical drive circuit implementation.
Lesson 3 • Hydraulic Actuator Systems
Explains hydraulic cylinders, motors, and valve control for high-force applications. Connects fluid power principles to system sizing and safety.
Lesson 4 • Pneumatic Actuator Systems
Addresses compressed-air cylinders, grippers, and control valves for fast, lightweight actuation. Prepares students for pneumatic circuit design exercises.
Lesson 5 • Mechanical Power Transmission Elements
Reviews couplings, belts, ball screws, and gearboxes that transfer actuator output to loads. Reinforces mechanical fundamentals and introduces efficiency analysis.
Chapter 4HideHide detailsSee detailsProgrammable Logic Controllers
Programmable Logic Controllers
Lesson 1 • PLC Wiring, I/O Configuration, and Diagnostics
Teaches field device wiring, I/O addressing, and fault diagnostics. Prepares students for commissioning and troubleshooting real control panels.
Lesson 2 • Data Handling and Math Instructions
Covers move, compare, and arithmetic instructions for data manipulation in PLCs. Enables students to implement setpoint control and recipe management.
Lesson 3 • Structured Text and Function Block Programming
Introduces IEC 61131-3 structured text and function block diagram languages. Expands programming versatility beyond ladder logic for complex algorithms.
Lesson 4 • Ladder Logic Programming Fundamentals
Introduces contacts, coils, timers, and counters in ladder diagram language. Provides the core programming skill set expanded in advanced PLC sections.
Lesson 5 • PLC Architecture and Hardware
Describes CPU, I/O modules, power supply, and communication ports of a PLC. Establishes hardware knowledge required for wiring and programming tasks.
Chapter 5HideHide detailsSee detailsIndustrial Control Systems and Feedback
Industrial Control Systems and Feedback
Lesson 1 • PID Controller Theory and Implementation
Derives proportional, integral, and derivative actions and their combined effect. Students implement PID blocks in PLC and simulate process responses.
Lesson 2 • Control System Stability Analysis
Uses Bode plots and gain/phase margin concepts to assess controller stability. Equips students to diagnose oscillation and instability in live systems.
Lesson 3 • Controller Tuning Methods
Applies Ziegler-Nichols, step-response, and auto-tune methods to set PID parameters. Develops practical tuning judgement for diverse industrial processes.
Lesson 4 • Open-Loop vs. Closed-Loop Control
Contrasts feedforward and feedback architectures using real industrial examples. Establishes why closed-loop control is essential for precision automation.
Lesson 5 • Cascade, Ratio, and Feedforward Control
Introduces multi-loop strategies that improve disturbance rejection and throughput. Builds on single-loop PID to handle complex process interactions.
Chapter 6HideHide detailsSee detailsIndustrial Networking and Communication
Industrial Networking and Communication
Lesson 1 • Network Diagnostics and Cybersecurity Basics
Introduces network diagnostic tools and fundamental cybersecurity practices for OT environments. Ensures students can identify faults and apply basic protective measures.
Lesson 2 • Industrial Communication Fundamentals
Explains OSI model layers, network topologies, and communication protocols relevant to automation. Provides the networking vocabulary used throughout this chapter.
Lesson 3 • Fieldbus Protocols and Wiring
Covers PROFIBUS, DeviceNet, and Modbus wiring, addressing, and configuration. Connects hardware installation skills to network commissioning tasks.
Lesson 4 • HMI Design and SCADA Integration
Teaches HMI screen development, alarm management, and SCADA data acquisition. Links field device data to operator visualisation and historical logging.
Lesson 5 • Industrial Ethernet and EtherNet/IP
Addresses managed switches, VLAN segmentation, and EtherNet/IP tag-based communication. Prepares students for modern high-speed plant network design.
Chapter 7HideHide detailsSee detailsRobotics and Motion Control Systems
Robotics and Motion Control Systems
Lesson 1 • Coordinated Multi-Axis Motion Profiles
Programmes trapezoidal and S-curve velocity profiles for synchronised axes. Enables students to design smooth, high-throughput motion sequences.
Lesson 2 • Robot Kinematics and Workspace Analysis
Covers forward and inverse kinematics for articulated and SCARA robots. Establishes the geometric foundation for robot programming and path planning.
Lesson 3 • Robot Safety and Collaborative Applications
Addresses safety-rated monitoring, collaborative robot standards, and risk assessment. Prepares students to deploy robots safely alongside human workers.
Lesson 4 • Robot Programming and Path Planning
Teaches teach-pendant programming, offline simulation, and path optimisation. Develops practical robot programming skills for pick-and-place and welding tasks.
Lesson 5 • Servo Drive and Motion Controller Setup
Configures servo amplifiers, encoder feedback, and motion controller parameters. Bridges actuator knowledge to coordinated multi-axis motion execution.
Chapter 8HideHide detailsSee detailsSystem Integration, Commissioning, and Maintenance
System Integration, Commissioning, and Maintenance
Lesson 1 • System Design Review and Documentation
Covers P&ID reading, electrical schematic review, and bill-of-materials verification. Ensures students can validate designs before physical installation begins.
Lesson 2 • Fault Diagnosis and Corrective Action
Applies structured troubleshooting methods to electrical, mechanical, and software faults. Integrates skills from all prior chapters into systematic fault resolution.
Lesson 3 • Preventive and Predictive Maintenance
Introduces scheduled maintenance tasks and condition-monitoring techniques such as vibration analysis. Shifts students from reactive to proactive maintenance strategies.
Lesson 4 • Panel Building and Field Wiring
Teaches control panel layout, wire routing, labelling, and field device termination. Develops hands-on wiring skills essential for commissioning activities.
Lesson 5 • Commissioning and Startup Procedures
Guides students through pre-power checks, I/O verification, and controlled startup sequences. Establishes a systematic commissioning methodology that reduces startup risk.
Your valid completion certificate
This course is for you:
Maintenance technician: ready to move beyond reactive repairs into automation roles.
Electrical apprentice: wanting a broader skill set that spans mechanical and control systems.
Mechanical engineer: looking to add electronics and PLC expertise to their background.
Manufacturing operator: aiming to transition into a technical or engineering support position.
Recent STEM graduate: seeking practical industrial skills before entering the workforce.
Career changer: drawn to automation and eager to build credible, job-ready competencies.
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