Ultimate Electrical Design and Fundamentals
- Description
- Curriculum
- FAQ
- Reviews
This comprehensive course is designed to equip participants with a deep and holistic understanding of electrical systems, covering key aspects such as theory, design, safety, installation, and testing. Participants will embark on a journey through the fundamental principles and example of applications that form the backbone of electrical engineering.
-
Electrical Systems Theory: Participants will delve into the theoretical foundations of electrical systems, exploring concepts such as circuit theory, network theorems, and analysis methods. The course will provide a solid grounding in the principles governing electrical systems, ensuring a strong theoretical foundation for subsequent modules.
-
Design Principles: Building upon the theoretical framework, this segment focuses on the design principles of electrical systems. Participants will learn to conduct load calculations, select appropriate equipment, and create efficient layouts. Emphasis will be placed on adhering to industry standards and codes to ensure safe and reliable system designs.
-
Safety Protocols: The course prioritizes safety in electrical systems. Participants will learn about shock protection, fault current protection, and the implementation of safety measures in electrical installations. Practical scenarios and case studies will be employed to reinforce the importance of safety practices in the field.
-
Installation Guides: Practical skills take center stage as participants master electrical installation techniques. From simple installations to final circuits, the course will cover wiring methods, and connection practices to ensure participants are adept at translating design concepts into real-world applications.
Bonus Gift for buying the course:
You will find also the slides for the Ultimate Electrical Design Course Bundle for those who are interested in them or having them as a revision for themselves
-
1
Ohm's Law -
2
Application of Ohm's Law in Series Resistors Connection
-
3
Application of Ohm's Law in Parallel Resistors Connection
-
4
Example of a DC Circuit Analysis using Ohm’s Law
-
5
Kirchoff's Laws
-
6
Example of Circuit Analysis using Kirchoff's Laws
-
7
Thevenin's Theorem
-
8
Example of Circuit Analysis using Thevenin's Theorem
-
9
Maximum Power Transfer Theorem
-
10
Sine Wave of Single Phase AC Voltage
-
11
AC Circuit With Pure Resistance Load
-
12
Power in Pure Resistive Load
-
13
Examples of Resistive Loads
-
14
Power Loss in Conductor
-
15
AC Circuit With Pure Inductive Load
-
16
Power in Pure Inductive Load
-
17
Example of Inductive Loads
-
18
AC Circuit with Pure Capacitive Load
-
19
Power in Pure Capacitive Load
-
20
Example of Capacitive Loads
-
21
Summary on Resistive, Inductive and Capacitive Circuit
-
22
Analysis on Series RLC Circuit
-
23
Analysis on Parallel RLC Circuit
-
24
Active, Reactive and Apparent Power in AC Circuit
-
25
Power Triangle
-
26
Power Factor and Relationship to Reactive Power
-
27
Example on Series RLC Circuit and Power Calculation
-
28
Effect of High Reactive Load to Power Loss
-
29
Phasor and Complex Number for AC Circuit Calculation
-
30
Three Phase AC Waveforms
-
31
Advantages of Three Phase AC
-
32
Basic Structure of a 3-Phase Circuit
-
33
Star(Y) source to Star(Y) load
-
34
Star(Y) source to Delta(∆) load
-
35
Delta(∆) source to Star(Y) load
-
36
Delta(∆) source to Delta(∆) load
-
37
Phase Voltage and Line Voltage
-
38
Relationship between Phase Voltage and Line Voltage for Y Connected Load
-
39
Current for Y Connected Load
-
40
Current for ∆ Connected Load
-
41
Conversion of ∆ source/load to Y source/load or Vice Versa
-
42
Calculation of 3 Phase Y source to Y load Circuit
-
43
Example Calculation of 3 Phase Y source to Y load Circuit
-
44
Power in a 3 phase Balanced AC Circuit
-
45
Example Power in a 3 phase Balanced AC Circuit
-
46
Calculation of ∆-Y, Y-∆ and ∆-∆ connections
-
47
Power Factor Correction
-
48
Example of Power Factor Correction
-
49
AC Current Measurement
-
50
AC Voltage Measurement
-
51
AC Power Measurement
-
52
Single, Two and Three Wattmeter Method
-
53
Power Analyzer
-
54
Energy Measurement
-
55
Electromechanical Induction Type Energy Meters
-
56
Electronic Type Energy Meters
-
57
Smart Energy Meters
-
58
Electrical Tariff
-
59
Introduction of Power System Harmonics
-
60
Triplen Harmonics
-
61
Where Do Harmonics Come From?
-
62
Example of Distorted Waveform
-
63
Total Harmonic Distortion (THD)
-
64
RMS value of a Total Waveform with Harmonics
-
65
Power and Power Factor with Harmonics
-
66
Effects of Harmonics on Generator
-
67
Effects of Harmonics on Transformer
-
68
Effects of Harmonics on AC Induction Motors
-
69
Effects of Harmonics on Cables
-
70
Effects of Harmonics on Circuit Breakers and Fuses
-
71
Effects of Harmonics on Lightings
-
72
Harmonic Standards and Mitigation Strategies
-
73
Harmonic Mitigation by Delta-Delta and Delta-Wye Transformers
-
74
Harmonic Mitigation by Isolation Transformers
-
75
Harmonic Mitigation by Passive Harmonic Filters
-
76
Harmonic Mitigation by Active Harmonic Filters
