Basics of Electrical Engineering - Course and Syllabus
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Basics of Electrical Engineering

Basics of Electrical Engineering

The module rigorously explores electrical systems, focusing on key components such as Low Tension switchgear, wires, cables, earthing, batteries, energy consumption calculations, power factor improvement, and electrical safety. Detailed analysis of safety mechanisms, operational principles, and applications is provided to ensure efficient and safe electrical installations. The importance of understanding electrical hazards and implementing effective safety protocols is emphasized throughout the chapter.

7 Chapters 70 hrs

Course Chapters

Chapter 1

Foundations of DC Circuits

The module provides foundational knowledge of electrical circuits, focusing on fundamental quantities, circuit elements, and essential laws and techniques for analyzing direct current (DC) systems. Key concepts include voltage, current, power, and energy, alongside circuit components like resistors, inductors, and capacitors. Analytical methods such as Kirchhoff's Laws, Thevenin's and Norton's theorems, and time-domain analysis of first-order circuits are explored, equipping learners with the tools to effectively analyze DC circuits.

Chapter 2

Fundamentals of AC Circuits

The module explores the fundamentals of alternating current (AC) circuits, covering key characteristics and mathematical representations of sinusoidal waveforms. It details the role of phasors in simplifying circuit analysis, explains effective values and power calculations, and examines resonance phenomena in RLC circuits. Finally, the advantages of three-phase systems and their configurations, such as Star and Delta connections, are discussed in the context of electrical power distribution.

Chapter 3

Introduction to Magnetism and Transformers

This chapter presents a thorough examination of magnetism and its application in transformers, detailing foundational magnetic circuit concepts, the operational principles of transformers, and the factors that affect their performance. It covers the mathematical formulation of electromagnetic induction, the analysis of transformer losses, efficiency, and various configurations like auto-transformers and three-phase connections. Furthermore, the content culminates in detailed assessments and practical exercises aimed at reinforcing the concepts learned.

Chapter 4

DC and AC Electrical Machines

This chapter explores the principles, construction, and operation of various electrical machines, focusing on their role in power systems and industrial automation. Topics include electromechanical energy conversion, three-phase and single-phase induction motors, DC motors, and synchronous generators, highlighting key concepts such as rotor construction, operational principles, and efficiency calculations.

Chapter 5

Power Electronic Converters

The module provides comprehensive insights into power electronic converters, their fundamental principles, and practical implementations. It covers the roles of power semiconductor switches, detailed analyses of DC-DC and DC-AC converters, and explores essential concepts like duty ratio control and modulation techniques. Practical applications across various industries underscore the significance and versatility of these converters in modern electrical systems.

Chapter 6

Power Systems and Smart Grid Fundamentals

The module presents a comprehensive examination of conventional electrical power systems, detailing stages from generation to distribution, and touches on the transformative concepts of Smart Grids. It elaborates on power generation techniques including thermal, hydroelectric, and nuclear plants, followed by transmission systems and their operations. The chapter culminates with an exploration of Smart Grid definitions, objectives, technologies, benefits, challenges, and future trends, emphasizing the need for modernized, efficient, and resilient electricity networks.

Chapter 7

Electrical Installations, Safety, and Energy Management

The module rigorously explores electrical systems, focusing on key components such as Low Tension switchgear, wires, cables, earthing, batteries, energy consumption calculations, power factor improvement, and electrical safety. Detailed analysis of safety mechanisms, operational principles, and applications is provided to ensure efficient and safe electrical installations. The importance of understanding electrical hazards and implementing effective safety protocols is emphasized throughout the chapter.