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Electrical Engineer Course

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Engineering

Electrical Engineer Course

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Electrical Engineer Course

Name: Electrical Engineer Course
Price: 264 CAD
Rating: 5 (2 reviews)

Master the full spectrum of electrical engineering — from Ohm's Law and Kirchhoff's theorems to three-phase power systems, semiconductor devices, and feedback control. This course delivers the analytical depth and practical skills employers demand from professional electrical engineers.

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What you will learn:

You will build a rigorous foundation in DC and AC circuit analysis, then advance through transient response, phasor methods, and three-phase power systems. You will study semiconductor devices including diodes, BJTs, and MOSFETs, and design amplifier and op-amp circuits. The course covers electromagnetic field theory, transformers, induction motors, and synchronous machines. You will also learn power electronics topologies and apply feedback control theory using PID design. Supplementary modules introduce MATLAB, SPICE simulation, renewable energy systems, embedded microcontroller programming, and professional engineering documentation.

How you study in practice Electrical Engineer Course

How you practise Electrical Engineer Course

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Course Content

8 Chapters • 40 LessonsDuration between 4 and 360 hours (you decide)

Chapter 1See details

Foundations of Electrical Engineering

Lesson 1 • Power and Energy in Circuits
Defines electrical power and energy, and introduces the passive sign convention. Enables students to calculate energy consumption and efficiency in simple circuits.
Lesson 2 • Electrical Safety and Standards
Introduces shock hazards, grounding, insulation, and industry safety standards. Grounds all future lab and field work in safe professional practice.
Lesson 3 • Resistance and Ohm's Law
Covers resistivity, resistance, and the linear relationship between voltage and current. Connects material properties to measurable circuit behavior.
Lesson 4 • Kirchhoff's Laws and Circuit Topology
Presents KVL and KCL as universal conservation laws governing circuit behavior. Students apply these laws to solve multi-element circuits systematically.
Lesson 5 • Charge, Voltage, and Current Basics
Introduces atomic structure, electron flow, and the definitions of charge, voltage, and current. Establishes the physical basis for all subsequent circuit analysis.

Chapter 2See details

DC Circuit Analysis Techniques

Lesson 1 • Mesh Current Method
Introduces mesh analysis using KVL to assign and solve loop currents. Complements node analysis for planar circuits with multiple voltage sources.
Lesson 2 • Capacitors and Inductors in DC Circuits
Introduces energy-storage elements and their DC steady-state behavior. Prepares students for transient and AC analysis in subsequent chapters.
Lesson 3 • Thevenin and Norton Equivalents
Derives Thevenin and Norton equivalent circuits to simplify complex networks. Enables efficient load analysis and maximum power transfer calculations.
Lesson 4 • Superposition and Linearity
Applies the superposition principle to circuits with multiple independent sources. Reinforces linearity as a core property enabling decomposition of complex problems.
Lesson 5 • Node Voltage Method
Teaches the node voltage method as a structured approach to multi-node circuit analysis. Builds on KCL to reduce circuit equations to a solvable linear system.

Chapter 3See details

Transient Circuit Analysis

Lesson 1 • Laplace Transform in Circuit Analysis
Introduces the Laplace transform as a tool to convert differential equations to algebraic form. Simplifies analysis of complex transient and steady-state circuit behavior.
Lesson 2 • First-Order RC Circuit Response
Derives natural and step responses of RC circuits using differential equations. Establishes the time constant as the key parameter governing transient decay.
Lesson 3 • Second-Order RLC Circuit Analysis
Extends transient analysis to second-order RLC circuits with three damping cases. Students classify and solve overdamped, critically damped, and underdamped responses.
Lesson 4 • First-Order RL Circuit Response
Analyzes natural and step responses of RL circuits in parallel with RC methods. Highlights duality between capacitive and inductive transient behavior.
Lesson 5 • Transient Simulation and Measurement
Applies simulation tools and oscilloscope techniques to observe and validate transient responses. Bridges theoretical analysis with practical laboratory measurement skills.

Chapter 4See details

AC Circuit Analysis and Phasors

Lesson 1 • Resonance in AC Circuits
Analyzes series and parallel resonance conditions and their practical significance. Connects resonance to filter design and frequency-selective circuit behavior.
Lesson 2 • Power Factor Correction
Teaches methods to improve power factor using reactive compensation. Demonstrates economic and efficiency benefits in industrial and commercial power systems.
Lesson 3 • Impedance and Admittance
Extends resistance concepts to complex impedance for capacitors and inductors. Enables application of DC analysis techniques directly to AC circuits.
Lesson 4 • Sinusoidal Sources and Phasor Representation
Defines sinusoidal waveforms and introduces phasor notation for steady-state analysis. Converts time-domain signals to frequency-domain phasors for algebraic manipulation.
Lesson 5 • AC Power Analysis
Defines and calculates real, reactive, and apparent power in AC circuits. Introduces power factor as a key efficiency metric in electrical systems.

Chapter 5See details

Three-Phase Power Systems

Lesson 1 • Power Measurement in Three-Phase Systems
Covers wattmeter connections and the two-wattmeter method for three-phase power measurement. Connects measurement techniques to power quality monitoring practice.
Lesson 2 • Unbalanced Three-Phase Systems
Extends analysis to unbalanced loads using mesh and node methods. Prepares students to diagnose and correct real-world power quality issues.
Lesson 3 • Balanced Three-Phase Power Calculations
Derives total real, reactive, and apparent power formulas for balanced three-phase loads. Enables efficient power system sizing and equipment selection.
Lesson 4 • Three-Phase Transformers and Distribution
Analyzes three-phase transformer connections and their role in power distribution networks. Introduces per-unit system for simplified multi-voltage system analysis.
Lesson 5 • Three-Phase Source and Load Configurations
Introduces wye and delta configurations for sources and loads in three-phase systems. Establishes phase and line voltage and current relationships for balanced systems.

Chapter 6See details

Electronic Devices and Circuits

Lesson 1 • MOSFET Operation and Biasing
Introduces NMOS and PMOS device physics, transfer characteristics, and biasing. Connects MOSFET behavior to digital and analog integrated circuit design.
Lesson 2 • Amplifier Analysis and Design
Designs single-stage BJT and MOSFET amplifiers and evaluates gain, input, and output impedance. Introduces frequency response and bandwidth as amplifier performance metrics.
Lesson 3 • Operational Amplifier Circuits
Analyzes ideal and practical op-amp behavior in inverting, non-inverting, and feedback configurations. Enables design of filters, integrators, and signal conditioning circuits.
Lesson 4 • Bipolar Junction Transistor Operation
Analyzes BJT structure, operating regions, and DC biasing for amplifier design. Establishes small-signal models used in AC amplifier analysis.
Lesson 5 • Semiconductor Physics and Diodes
Covers p-n junction theory, diode I-V characteristics, and rectifier circuit design. Provides the device-level foundation for all subsequent transistor analysis.

Chapter 7See details

Electromagnetic Fields and Machines

Lesson 1 • Induction Motors
Derives the rotating magnetic field concept and analyzes induction motor equivalent circuits. Covers slip, torque-speed curves, and efficiency for industrial motor selection.
Lesson 2 • DC Machines: Motors and Generators
Analyzes DC machine construction, equivalent circuits, and torque-speed characteristics. Enables selection and sizing of DC motors for drive applications.
Lesson 3 • Electromagnetic Field Fundamentals
Reviews electric and magnetic field laws including Gauss's, Ampere's, and Faraday's laws. Establishes the field-theory basis for transformer and motor analysis.
Lesson 4 • Magnetic Circuits and Transformers
Models magnetic circuits using reluctance analogy and analyzes transformer equivalent circuits. Covers core losses, leakage inductance, and efficiency under load.
Lesson 5 • Synchronous Machines
Analyzes synchronous generator and motor operation using phasor diagrams and equivalent circuits. Introduces excitation control and power angle for grid-connected machines.

Chapter 8See details

Power Electronics and Control Systems

Lesson 1 • Inverters and AC Motor Drives
Covers single-phase and three-phase inverter topologies and PWM modulation strategies. Connects inverter design to variable-frequency drive operation for motor control.
Lesson 2 • PID Controller Design and Tuning
Designs proportional-integral-derivative controllers and applies tuning methods to real systems. Enables students to optimize transient and steady-state performance of regulated systems.
Lesson 3 • Feedback Control System Fundamentals
Introduces open-loop and closed-loop control, transfer functions, and stability criteria. Provides the control theory foundation for regulating power converters and drives.
Lesson 4 • Power Semiconductor Devices
Introduces SCRs, IGBTs, and MOSFETs as power switching devices and their gate drive requirements. Establishes switching device characteristics critical to converter design.
Lesson 5 • DC-DC Converter Topologies
Analyzes buck, boost, and buck-boost converters in continuous and discontinuous conduction modes. Enables design of regulated DC power supplies for electronic systems.

Certification

Your valid completion certificate

This course is for you:

Engineering students: seeking a structured path through core electrical concepts.
Technicians: ready to move from hands-on work into analytical engineering roles.
Physics graduates: wanting to apply theoretical knowledge to real circuit problems.
Career changers: transitioning into electrical engineering from unrelated technical fields.
Hobbyist makers: determined to understand the science behind their electronics projects.
Junior engineers: filling knowledge gaps left by incomplete or narrowly focused degrees.

What our students say

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