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Professional Electrotechnics Course

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Electricity

Professional Electrotechnics Course

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Professional Electrotechnics Course

Name: Professional Electrotechnics Course
Price: 264 CAD
Rating: 4 (2 reviews)

Master the full spectrum of electrotechnics — from DC fundamentals and AC theory to electrical machines, power electronics, and industrial installations. This course delivers the technical depth and practical skills employers demand from qualified electrotechnical professionals. Whether you're advancing your career or formalizing your expertise, this is the training that gets you there.

Dedika for Business

What you will learn:

You will build a solid foundation in DC and AC circuit theory, then advance through three-phase power systems, transformers, DC machines, and AC induction and synchronous motors. You will study power electronics, including rectifiers, inverters, and variable frequency drives used in industrial drive systems. The course also covers electrical installation standards, cable sizing, earthing systems, and verification testing. Supplementary modules address electrical safety, instrumentation, renewable energy integration, PLC programming, power quality, and professional practice. By the end, you will have the technical knowledge to analyze, design, and maintain real-world electrical systems with confidence.

How you study in practice Professional Electrotechnics Course

How you practise Professional Electrotechnics Course

For companies looking to train their team

With Dedika for Business, the course includes exercises and examples tailored to your own business and the way your company needs.

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Course Content

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

Chapter 1See details

Fundamentals of Electricity and Circuits

Lesson 1 • Capacitors and Inductors in DC Circuits
Explains energy storage in capacitive and inductive elements under DC transient conditions. Prepares students for AC circuit analysis in later chapters.
Lesson 2 • Electrical Quantities and Units
Introduces voltage, current, resistance, and power with SI units. Establishes the measurement language used throughout the entire course.
Lesson 3 • Series and Parallel Circuit Analysis
Teaches equivalent resistance calculation for series, parallel, and mixed networks. Enables students to simplify complex resistive circuits systematically.
Lesson 4 • Kirchhoff's Laws and Network Theorems
Applies KVL and KCL to multi-loop circuits and introduces superposition and Thevenin equivalents. Provides tools for analyzing any linear DC network.
Lesson 5 • Ohm's Law and Basic Relationships
Derives and applies Ohm's Law to resistive elements. Connects voltage, current, and resistance in practical circuit scenarios.

Chapter 2See details

Alternating Current Theory

Lesson 1 • Impedance of R, L, and C Elements
Calculates inductive and capacitive reactance and total impedance. Connects component behavior to frequency-dependent circuit response.
Lesson 2 • Resonance in AC Circuits
Analyzes series and parallel resonance conditions and quality factor. Demonstrates frequency selectivity critical for filter and tuning applications.
Lesson 3 • AC Power Analysis
Distinguishes real, reactive, and apparent power and defines power factor. Enables accurate power budgeting and efficiency assessment in AC systems.
Lesson 4 • AC Waveform Characteristics
Defines sinusoidal waveforms by amplitude, frequency, period, and phase. Establishes the mathematical basis for all AC circuit analysis.
Lesson 5 • Phasor Representation and Complex Notation
Converts time-domain sinusoids into phasor and complex number form. Simplifies AC circuit calculations by replacing differential equations with algebra.

Chapter 3See details

Three-Phase Systems and Power Distribution

Lesson 1 • Power Factor Correction
Applies capacitor banks to improve power factor in three-phase systems. Reduces reactive power demand and improves distribution efficiency.
Lesson 2 • Unbalanced Three-Phase Loads
Analyzes unbalanced star and delta loads using mesh and nodal methods. Prepares students for real-world installations where loads are rarely equal.
Lesson 3 • Three-Phase Power Calculations
Calculates real, reactive, and apparent power for balanced three-phase loads. Provides the quantitative tools needed for industrial load assessment.
Lesson 4 • Three-Phase Generation Principles
Explains how three-phase EMF is generated and the phase sequence concept. Establishes why three-phase systems dominate industrial power distribution.
Lesson 5 • Star and Delta Configurations
Derives voltage and current relationships for star and delta connections. Enables correct load and source wiring in three-phase installations.

Chapter 4See details

Electrical Machines: Transformers

Lesson 1 • Transformer Construction and Principles
Covers core materials, winding arrangements, and the mutual induction principle. Links physical construction to the transformer's voltage and current transformation ratios.
Lesson 2 • Three-Phase Transformer Connections
Analyzes delta-delta, star-star, delta-star, and star-delta configurations and phase shifts. Prepares students for specifying transformers in three-phase distribution networks.
Lesson 3 • Transformer Testing and Parameters
Performs open-circuit and short-circuit tests to extract equivalent circuit parameters. Provides the data needed for efficiency and regulation calculations.
Lesson 4 • Voltage Regulation and Efficiency
Calculates voltage regulation and efficiency at various loads and power factors. Enables performance comparison and optimal loading decisions.
Lesson 5 • Ideal and Practical Transformer Models
Contrasts the ideal transformer with the practical equivalent circuit including losses. Enables accurate prediction of voltage regulation and efficiency.

Chapter 5See details

DC Machines: Motors and Generators

Lesson 1 • DC Motor Principles and Torque
Derives the torque equation and explains back-EMF in DC motors. Connects electrical input to mechanical output through the motor's operating equations.
Lesson 2 • DC Generator Characteristics
Analyzes separately excited, shunt, series, and compound generator configurations. Evaluates voltage regulation and load characteristics for each excitation type.
Lesson 3 • DC Motor Speed Control Methods
Covers armature voltage, field weakening, and resistance insertion for speed control. Enables selection of the appropriate control method for a given drive requirement.
Lesson 4 • DC Machine Losses and Efficiency
Identifies copper, iron, mechanical, and stray losses in DC machines. Calculates overall efficiency and identifies strategies to minimize losses.
Lesson 5 • DC Machine Construction and EMF
Describes armature, field windings, commutator, and brush assembly. Derives the EMF equation linking speed, flux, and armature winding parameters.

Chapter 6See details

AC Machines: Induction and Synchronous

Lesson 1 • Induction Motor Starting and Speed Control
Evaluates direct-on-line, star-delta, and autotransformer starting methods. Covers variable frequency drive control for energy-efficient speed regulation.
Lesson 2 • Induction Motor Construction and Slip
Describes squirrel-cage and wound-rotor construction and defines slip. Links rotor speed to slip and explains induced rotor EMF and frequency.
Lesson 3 • Induction Motor Equivalent Circuit
Develops the per-phase equivalent circuit and derives torque and power expressions. Enables quantitative performance prediction across the full speed range.
Lesson 4 • Synchronous Machines: Motors and Generators
Analyzes synchronous generator and motor operation using phasor diagrams. Covers excitation control, power angle, and synchronous machine stability.
Lesson 5 • Rotating Magnetic Field Theory
Explains how three-phase stator currents produce a rotating magnetic field. Establishes the foundational concept for all AC machine operation.

Chapter 7See details

Electrical Installations and Wiring Systems

Lesson 1 • Earthing Systems and Protective Bonding
Explains TN, TT, and IT earthing arrangements and bonding requirements. Ensures fault current paths are established for safe disconnection of supply.
Lesson 2 • Circuit Protection Devices
Covers fuses, miniature circuit breakers, and residual current devices for overcurrent and fault protection. Links device ratings to cable and load protection requirements.
Lesson 3 • Wiring Systems and Cable Types
Surveys conduit, trunking, cable tray, and direct-burial wiring methods. Matches installation method to environmental and mechanical protection requirements.
Lesson 4 • Installation Testing and Verification
Performs insulation resistance, continuity, loop impedance, and RCD tests. Confirms that completed installations meet safety performance requirements before energization.
Lesson 5 • Cable Sizing and Current Ratings
Applies load current, correction factors, and voltage drop limits to select cable cross-sections. Ensures cables operate safely within thermal and voltage constraints.

Chapter 8See details

Power Electronics and Drive Systems

Lesson 1 • Rectifier Circuits and DC Supplies
Analyzes half-wave, full-wave, and three-phase controlled rectifiers. Calculates output voltage, ripple, and the effect of firing angle on DC output.
Lesson 2 • Variable Frequency Drives in Practice
Integrates rectifier, DC link, and inverter stages into a complete VFD system. Covers motor protection, braking methods, and drive commissioning procedures.
Lesson 3 • DC-DC Converters
Analyzes buck, boost, and buck-boost converter topologies in continuous conduction mode. Derives voltage conversion ratios and inductor current waveforms.
Lesson 4 • Inverters and PWM Techniques
Explains single-phase and three-phase voltage source inverters with PWM control. Connects inverter output quality to switching frequency and modulation index.
Lesson 5 • Power Semiconductor Devices
Covers diodes, thyristors, MOSFETs, IGBTs, and their switching characteristics. Establishes the device knowledge required for converter circuit analysis.

Certification

Your valid completion certificate

This course is for you:

Electrician apprentice: ready to move beyond on-the-job basics into theory.
Electrical engineering student: seeking practical reinforcement of classroom concepts.
Maintenance technician: wanting to understand the machines and systems they service.
Career changer: transitioning into the electrical trades from an unrelated technical field.
Industrial automation technician: expanding knowledge into drives, power, and machines.
Facilities engineer: needing deeper electrical competency for complex site responsibilities.

What our students say

Your classes are perfect. I purchased the one-year package and finally have the opportunity to follow various topics of interest without needing to switch platforms... I thank you for everything you do, I've already recommended you to other people...