• Understand the fundamentals of electrical engineering and its relation to industrial automation
• Differentiate between power circuits and control circuits in industrial systems
• Identify and select electrical control components based on application requirements
• Design and implement classic control circuits for various industrial operations
• Analyze and troubleshoot electrical control systems efficiently
• Apply safety principles and protection methods in control circuits
• Interpret engineering drawings and control diagrams
• Utilize simulation tools for designing and testing control circuits
• Get Simple Introduction to PLC, HMI, SCADA and VFD systems as a transition to advanced Programmable automation.

Unit 1 — Introduction to Electrical & Automation Engineering

• Overview of electrical engineering fields
• Introduction to industrial automation
• History and evolution of control systems
• Automation pyramid concept

Unit 2 — Fundamentals of Control Systems

• Concept of Control System (Inputs – Processing – Outputs)
• Difference between Manual Control and Automatic Control 
• Classic Control Vs. PLC and Modern Automation Systems
• Control Panels vs. Distribution Panels
• Power Circuit vs. Control Circuit
• General Skills needed to be gained by Classic Control Study.

Unit 3 — Electrical Power Systems Basics

• Generation, transmission, and distribution overview 
• Types of transformers (Oil / Dry)
• AC vs. DC systems
• Electrical supply sources

Unit 4 — Protection Devices in Control Systems

• Circuit breakers (MCB, MCCB, ACB)
• Fuses and protection principles
• Earth Leakage & Residual Current Circuit Breakers ( ELCB Vs. RCCB ) 
• Short Circuit vs. Overload protection Concepts and Techniques 
• Safety in electrical systems ( Grounding , Earthing ) 

Unit 5 — Contactors, NO & NC Contacts , Switches and Lamps 

• Contactors (Main & Auxiliary)
• Normally Open & Normally Closed NO / NC contacts
• Overload Protection Relay & Motor Starter 
• Push buttons & selector switches
• Measuring Devices ( Multi-meter / AVO-meter / Clamp Meter ) 
• Indicator lamps and alarms

 Unit 6 — Basic Motor Control Circuits

• Start / Stop Control Circuits for electric motors
• Motor operation from one location and multiple locations
• Run and Stop control from more than one place (Multi-Station Control)
• Power and Control Circuits for two or three motors with different operating conditions, sequential and interlocking conditions

Unit 7 — Simulation Software for Motor Control

• Introduction to simulation software used in control systems
• Building power and control circuits for one motor using simulation tools
• Designing multiple control scenarios for a single motor and two motors (Start/Stop, Forward/Reverse, and Interlocks)
• Testing and validating control logic under different operating conditions
• Troubleshooting and optimizing circuits using simulation before real implementation

Unit 8 — Relays, Timers & Practical Control Applications

• Relays: types, functions, and industrial applications
• Comparison between Relay and Contactor in control systems
• Timers (ON Delay / OFF Delay) and their operating principles
• Applications of timers in control circuits
• Simulating relay and timer control circuits using software tools
• Building and testing control logic in simulation environments
• Practical real-life applications using training models
• Hands-on implementation of relay and timer circuits in industrial scenarios

Unit 9 — Forward / Reverse Control of 3-Phase Motors

• Forward and Reverse control concepts for 3-phase motors
• Limit Switches and Implementing in two direction Control Circuits
• Power and control circuits for Forward / Reverse operation
• Electrical interlocking and safety considerations
• Simulating forward and reverse motor control circuits using software
• Practical implementation on training models
• Testing and troubleshooting Forward / Reverse circuits
• A-0-M (Automatic and Manual) Control Scenario and Practical Application 

 Unit 10 — Starting Methods of 3-Phase Motors

• Concept of starting for 3-phase motors
• Overview of starting methods for 3-phase motors (DOL – VFD – S. Starters)
• Star-Delta starting principle
• Power and control circuits for Star-Delta starter
• Simulating Star-Delta circuits using software tools
• Practical implementation on training models
• Testing and performance evaluation of starting circuits

Unit 11 — Introduction to PLC, HMI, SCADA & VFD Systems

• Overview of modern industrial automation systems 
• Introduction to PLC (Programmable Logic Controller) and its role in control systems
• Introduction to HMI (Human Machine Interface) for monitoring and control
• Introduction to SCADA systems and industrial supervision 
• Introduction to VFD (Variable Frequency Drive) and motor speed control
• Demonstration of software tools used for PLC, HMI, SCADA, and VFD
• Viewing practical application examples in industrial environments
• Understanding integration between PLC, HMI, SCADA, and VFD systems
• Real-life demonstration on training models (as an Example)

• Day 1 : Unit1, Unit2, Unit3, Unit4
• Day 2 : Unit5, Unit6
• Day 3 : Unit7, Unit8
• Day4 : Unit 9 and any Remaining items from Past Days (If exists) 
• Day5 : Unit10, Unit 11

• Electrical & Automation Engineers 
• Technicians and Maintenance Engineers 
• Fresh Graduates in Electrical & Mechatronics Engineering
• Anyone interested in Industrial Control Systems
• Electrical Control Circuit Design
• Industrial Motor Control Systems
• Protection Systems (MCB, MCCB, Overload, Fuses)
• Control Components as (Contactors, Electromechanical Relays, Timers, Switches, Lamps, Limit Switches)
• Industrial Measurements & Testing Tools 
• Troubleshooting & Maintenance Techniques for Control Circuits & Components 
• Basic Automation Systems Awareness (PLC, HMI, VFD)