About the Course
The Electric Power Systems course is an essential training program for every engineer or technician specializing in the field of electricity and energy. This course is designed to help participants master the intricacies of power systems with high precision and professional expertise.
The curriculum provides an extensive explanation of power systems, electrical circuits, distribution stations, and core equipment—such as transformers and automatic circuit breakers. By the end of this program, trainees will possess a superior ability to analyze electrical systems and significantly enhance their professional performance in industrial and commercial environments.
Course Objectives
- Master fundamental concepts of Electric Power Systems and their practical field applications.
- Understand the internal construction and functional roles of primary electrical equipment (Transformers, Automatic Switches, and Circuit Breakers).
- Gain expertise in the design and analysis of three-phase (3-phase) electrical circuits.
- Study the operational principles of electric motors and their associated control systems.
- Learn how to calculate electrical loads and distribute them effectively across a network.
- Familiarize with the latest international standards approved for global power projects.
- Enhance the technical skills required to interpret electrical schematics and technical specifications.
Course Curriculum
Day 1: Introduction to Electric Power Systems
- The concept of electric power and its strategic importance in engineering projects.
- Classification of electrical power systems and their diverse applications.
- General overview of the core components within a power system.
- A comparative analysis: Control Circuits vs. Power Circuits.
Day 2: 3-Phase Electrical Circuit Analysis
- The concept of three-phase current and its advantages in industrial power.
- Analyzing Star (Y) and Delta (Δ) connected circuits.
- Calculating active, reactive, and apparent power in 3-phase systems.
- Energy distribution strategies for factories and large-scale buildings.
Day 3: Power System Components and Equipment
- In-depth study of electrical transformers: Types, cooling methods, and applications.
- Understanding Circuit Breakers (CB) and load break switches.
- Protection and control units within electrical distribution boards.
- Reviewing technical datasheets and specifications for common electrical hardware.
Day 4: Electric Motors and Operational Systems
- Types of electric motors: DC motors, AC motors, and Induction motors.
- Operational principles and speed/torque control methodologies.
- Studying motor starting systems and electronic drive controls (VFDs/Soft Starters).
- Analyzing motor loads and their impact on overall power quality.
Day 5: Design and Analysis of Power Infrastructures
- Step-by-step design phases for a building or factory power system.
- Selection criteria for cables and sizing them according to load demand.
- Calculating Voltage Drop and system efficiency in electrical circuits.
- Adhering to international standards (IEEE, IEC, NEC) in system design and implementation.
