Applied Mechatronics Engineering: A Practical Guide to Mechanical Systems, Electronics, Sensors, Control Systems, Robotics, and Industrial Automation

Build a deeper understanding of the machines, control systems, robotics, and intelligent technologies shaping modern engineering.

Modern machines are no longer purely mechanical. They sense their environment, process information, make decisions, control motion, communicate with other systems, and increasingly use artificial intelligence to predict problems before they happen.

That is the world of mechatronics.

But learning mechatronics can be frustrating. Mechanical engineering, electronics, programming, sensors, control theory, robotics, and industrial automation are often taught as separate subjects—even though real machines depend on all of them working together.

Applied Mechatronics Engineering brings those disciplines together into one practical, systems-level guide.

Rather than treating motors, sensors, microcontrollers, control algorithms, PLCs, and robotic mechanisms as isolated topics, this book shows how they interact to create functioning machines. You will develop the ability to follow the complete engineering chain—from a physical phenomenon being measured, through signal processing and computation, to a controller commanding an actuator and producing a real physical response.

Inside the Book

You will progressively explore:

• The foundations and engineering principles of modern mechatronics
• Mechanical systems, forces, motion, torque, power, gears, linkages, shafts, and bearings
• Electrical and electronic systems used in mechatronic machines
• Sensors, measurement, signal conditioning, calibration, and data acquisition
• DC, stepper, servo, and brushless motors and their control
• Microcontrollers, embedded systems, timers, interrupts, PWM, and ADC
• Feedback control, stability, digital control, and PID controllers
• Digital signal processing and real-time measurement
• UART, I²C, SPI, CAN, Modbus, and industrial communication
• Robotic architectures, coordinate systems, forward and inverse kinematics
• Robot trajectory planning and end-effector control
• PLC architecture and industrial control
• Ladder logic, timers, counters, sequencing, and interlocks
• HMI, SCADA, and automated production systems
• Machine vision and intelligent sensing
• Artificial intelligence, machine learning, and predictive maintenance
• Industrial IoT and connected manufacturing
• System integration, prototyping, testing, troubleshooting, safety, and reliability

More Than a Collection of Technical Topics

The real value of this book is the connection between the topics.

A sensor is not useful simply because you understand how it works. You need to understand how its signal reaches a controller, how that signal is interpreted, how noise and sampling affect the measurement, how a control algorithm responds to it, and how the resulting command ultimately affects a physical actuator.

Likewise, selecting a motor is not simply a matter of finding one with enough torque. Voltage requirements, mechanical mounting, feedback signals, controller compatibility, communication interfaces, load characteristics, and the rest of the system all have to work together.

The book also takes mechatronics beyond traditional automation.

You will see how conventional sensor-and-control systems evolve into intelligent manufacturing environments through machine vision, condition monitoring, predictive maintenance, artificial intelligence, machine learning, and Industrial IoT technologies.

The progression is deliberate:

Mechanical Systems → Electronics → Sensors → Actuators → Embedded Systems → Control → Communication → Robotics → Industrial Automation → Intelligent Manufacturing

By the final chapters, these individual technologies are brought together through integrated system design and practical applications.