Our Curriculum

Mechanical, Electronics, Electromechanical, Computer Technology

Want to understand, operate or build machines that think and move?
Then consider our training on Mechatronics and Robotics. This training combines the understanding of mechanical systems, electronics, control engineering, and programming to create intelligent machines that power modern automation. We equip you with hands-on experience in designing, assembling, and programming robotic systems for industrial and real-world applications.

You’ll learn:
✅ Fundamentals of mechatronic systems and robotic architecture
✅ Sensor integration and actuator control
✅ Motion control and kinematics
✅ PLC and microcontroller-based robotic programming
✅ Troubleshooting and optimizing robotic systems

Still wondering how Mechatronics and Robotics relate?
Mechatronics is essentially the use of electrical signals to control mechanical devices through an electromechanical interface. Common examples include remote-operated gates, washing machines, elevators, conveyors, vehicle anti-lock braking systems, aircraft controls, and various industrial equipment. Today, Mechatronics has evolved into a multidisciplinary field that combines mechanical, electrical, telecommunications, control, and computer engineering.

Robotics is considered a subset of Mechatronics because it also integrates mechanical, electronic, and computer engineering principles. The key difference lies in autonomy: Mechatronic systems rely on external inputs, while robotic systems acquire inputs on their own.

Clear Contrast:
A traffic light that controls vehicles based on a pre-programmed sequence is a Mechatronic system (automatic). However, if the same system uses cameras to sense traffic and adjust signals dynamically, it becomes a Robotic system (autonomous).

Note: This is a practical, project-driven course where you’ll not only understand the theory but also build and program real robotic systems. By the end, you’ll be ready to take on advanced automation challenges and lead innovation in robotics.

✅ Ready to create the future? Register Now and secure your spot!
👉 Click Here to Register

Course Content

• INTRODUCTION TO MECHATRONICS; Disciplinary foundations of mechatronics, Mechatronic systems; components and various application, Measurement systems; Transducer, Signal processor and Recorder, Design example; DC Motor speed controller

• FUNDAMENTALS, SIMPLE MACHINES AND MECHANISMS; Force, torque and Motion, Conservation of momentum, Work, power and energy, Simple machines and mechanisms; Links and joints (kinematics), Bearings and Lubricants

• MECHANICAL ENERGY; Electric motors; various types and principle of operation, Fundamentals of Fluid Mechanics; Hydraulic and Pneumatic, Thermodynamics and Heat transfer, Transmitting motion; Gears, Pulley, chains and sprocket

• MECHANICAL SYSTEMS DESIGN; Introduction to Engineering design and manufacturing, Structures and Material selection, Machine element design and construction, Practical session on metal cutting, drilling, grinding and welding

• FUNDAMENTAL ELECTRONICS; COMPONENTS AND CIRCUITS; Basic electrical circuit elements; Resistors, Capacitor, Inductor, Alternating current circuit analysis, Power in electrical circuits, Transformer; Design and working principle, Introduction to junction diodes, check valve analogy, DC power supply; AC-DC converters and Batteries, Voltage regulator; Zener diodes and high current regulators, Electromechanical switch – relay and contactors

• SEMICONDUCTOR ELECTRONICS; Semiconductor physics, Detailed operation of diodes and various applications, Transistors; Bipolar junction and Field-effect transistors, Use of Transistors as Switch and Amplifier, Integrated circuits (IC); examples, overview and various applications, Multi vibrator circuits; Monostable, Bistable and Astable, DC-AC Inverters; circuit design and principle of operation

• INSTRUMENTATION – SENSORS AND TRANSMITTERS; Resistive sensors; Light, Sound and Temperature Dependent Resistors, Position and speed measurement; Proximity sensors and switches, Digital Optical Encoder, Linear Variable Differential Transformer, Stress and strain measurement, Temperature measurement, Vibration and acceleration measurement, Fluid level, Pressure and flow measurement, Semiconductor sensors and microelectromechanical devices, Interfacing sensors with electronic circuits

• INSTRUMENTATION – ACTUATORS; Electromagnetic principles, Solenoids and relays, Electric motors; AC and DC – Various types and application, Electric motor Speed control; Variable Frequency Drives, Variable Voltage control and Pulse Width Modulation, Hydraulic and Pneumatic actuators

• ANALOG SIGNAL PROCESSING USING OP AMP / DATA ACQUISITION; Basic need for amplification, Operational amplifiers; Inverting, Non-inverting, summer, Instrumentation amplifier, Comparators and their applications, Quantizing theory, Analog-to-digital conversion, Digital-to-Analog Conversion

• DIGITAL CIRCUITS; Digital representations, Boolean algebra, Design of logic networks, Combinational logic and Sequential logic, Flip-flops and various application, Switch Debouncing, Data register, TTL and CMOS integrated circuits and interfacing

• REMOTE CONTROL; Concept of Tele-operation, Infrared and RF remote control, Interfacing remote receiver with electronic circuit

• MICROCONTROLLER PROGRAMMING AND INTERFACING; Microprocessors, microcomputers and Microcontrollers, AVR microcontrollers overview, Device architecture, Program execution, Atmel AVR instruction set, Atmel AVR (Atmega 16) pin configuration, Programming AVR microcontrollers, Basic compiler features, Guides to programming AVR microcontroller, Standard basic language elements, Method to design a microcontroller-based system, Introduction to Arduino programming

• PROGRAMMABLE LOGIC CONTROLLERS; Introduction, Common PLC types; Allen Bradley, Delta, Siemens, Schneider, Omron, What to consider when choosing a PLC, PLC architecture, PLC Wiring and interfacing with IO devices, Programming PLC using ladder logic, Tips to troubleshooting a PLC

• Participants:
  • Undergraduates
  • Graduates
  • Individuals with interest in Mechatronics Engineering
• Duration:
  • 2 Months
  • 90 hours cumulative
• Available Resources:
  • Detailed Course Materials, Comprehensive Videos on all topics, Free Programming software and unlimited access to training kits. All you need is a personal computer to practice at home.