690 Students
Electric circuits form the backbone of all electrical and electronic systems used across Canada, from household wiring and office equipment to industrial machinery, communication systems, and automation technologies. Understanding how circuits operate is essential for anyone entering technical, maintenance, or electrical support roles. This course introduces the principles of electric circuits and electronics, focusing on how electrical energy is generated, …
Electric circuits form the backbone of all electrical and electronic systems used across Canada, from household wiring and office equipment to industrial machinery, communication systems, and automation technologies. Understanding how circuits operate is essential for anyone entering technical, maintenance, or electrical support roles.
This course introduces the principles of electric circuits and electronics, focusing on how electrical energy is generated, controlled, and distributed through different components. Learners explore DC circuit behaviour, analytical techniques, and the role of components such as resistors, capacitors, and inductors in shaping electrical performance within real-world systems.
With flexible online learning, participants can study at their own pace while developing structured knowledge of circuit theory and practical applications. A completion certificate supports pathways into electrical technician support, maintenance roles, technical assistance, and entry-level electronics-related environments across Canada.
All of our courses, including this Electric Circuits for Electrical Engineering and Electronics, are fully accredited, providing you with up-to-date skills and knowledge and helping you to become more competent and effective in your chosen field.
All of our courses are accredited by the CPD Quality standards as conforming to universally accepted Continuing Professional Development (CPD) guidelines.
The Quality Licence Scheme (QLS) is a trusted endorsement framework that certifies high-quality, non-regulated training programmes across various sectors.
The Association of Healthcare Trainers (AoHT) promotes high-quality healthcare training, supporting providers to deliver relevant, industry-aligned education and improve professional standards.
Once you’ve successfully completed your course, you will immediately be sent a digital certificate. Also, you can have your printed certificate delivered by post (shipping cost CA$9.99). All of our courses are fully accredited, providing you with up-to-date skills and knowledge and helping you to become more competent and effective in your chosen field.
At the end of the course, there will be an online assessment, which you will need to pass to complete the course. Answers are marked instantly and automatically, allowing you to know straight away whether you have passed. If you haven’t, there’s no limit on the number of times you can take the final exam. All this is included in the one-time fee you paid for the course itself.
An electric circuit contains components like batteries, switches, bulbs, resistors, and capacitors, connected in a continuous loop. This allows electricity to flow and power the components. Many different components can be used in a circuit.
Courses typically cover DC and AC circuits, Ohm’s Law, Kirchhoff’s Voltage and Current Laws (KVL/KCL), series/parallel circuits, components (resistors, inductors, capacitors), and power factor correction.
A solid understanding of basic algebra, trigonometry, and sometimes complex numbers and calculus is required for analyzing circuit behavior.
Usually, a high school diploma with credits in English and Mathematics is needed.
| Introduction to Electric Circuits and Electronics | |||
| Definition of Electric Circuit | 00:03:00 | ||
| Electric Charge and Electric Current | 00:03:00 | ||
| Alternating Current (AC) Vs Direct Current (DC) | 00:02:00 | ||
| Definition of Voltage | 00:02:00 | ||
| Electrical Energy and Voltage | 00:02:00 | ||
| Definition of Power | 00:02:00 | ||
| Quiz 1 Solutions | 00:02:00 | ||
| Sources in Electric Circuits and Electronics | |||
| Independent Sources | 00:02:00 | ||
| Example – Independent Sources | 00:04:00 | ||
| Dependent Sources | 00:03:00 | ||
| Example – Dependent Sources | 00:03:00 | ||
| DC Resistive Electric Circuits | |||
| Ohm’s Law | 00:07:00 | ||
| Example – Ohm’s Law (1 of 2) | 00:03:00 | ||
| Example – Ohm’s Law (2 of 2) | 00:03:00 | ||
| Circuit Terminology | 00:03:00 | ||
| Kirchhoff’s Current Law (KCL) | 00:03:00 | ||
| Example – Kirchhoff’s Current Law (KCL) | 00:07:00 | ||
| Kirchhoff’s Voltage Law (KVL) | 00:07:00 | ||
| Example – Kirchhoff’s Voltage Law (KVL) | 00:04:00 | ||
| Voltage Division | 00:05:00 | ||
| Example – Voltage Division | 00:05:00 | ||
| Current Division | 00:06:00 | ||
| Example – Current Division | 00:06:00 | ||
| Series Resistors | 00:06:00 | ||
| Example – Series Resistors | 00:04:00 | ||
| Parallel Resistors | 00:08:00 | ||
| Example – Parallel Resistors | 00:05:00 | ||
| Series/Parallel Combination of Resistors | 00:04:00 | ||
| Example – Series/Parallel Combination of Resistors (1 of 3) | 00:06:00 | ||
| Example – Series/Parallel Combination of Resistors (2 of 3) | 00:08:00 | ||
| Example – Series/Parallel Combination of Resistors (3 of 3) | 00:10:00 | ||
| Example – Resistive Circuit Analysis (1 of 3) | 00:07:00 | ||
| Example – Resistive Circuit Analysis (2 of 3) | 00:09:00 | ||
| Example – Resistive Circuit Analysis (3 of 3) | 00:10:00 | ||
| Nodal Analysis of DC Resistive Electric Circuits | |||
| Definition of Nodal Analysis | 00:09:00 | ||
| Example – Nodal Analysis with Independent Sources | 00:12:00 | ||
| Example – Nodal Analysis with Dependent Sources | 00:13:00 | ||
| Loop Analysis of DC Resistive Electric Circuits | |||
| Definition of Loop Analysis | 00:12:00 | ||
| Example – Loop Analysis with Independent Sources | 00:11:00 | ||
| Example – Loop Analysis with Dependent Sources | 00:16:00 | ||
| Advanced DC Electric Circuit Analysis Techniques | |||
| Superposition Theorem | 00:04:00 | ||
| Example – Superposition Theorem | 00:04:00 | ||
| Thévenin’s Theorem | 00:03:00 | ||
| Example – Thévenin’s Theorem (Part 1) | 00:06:00 | ||
| Example – Thévenin’s Theorem (Part 2) | 00:06:00 | ||
| Norton’s Theorem | 00:08:00 | ||
| Example – Norton’s Theorem | 00:09:00 | ||
| Capacitors and Their Uses in Electric Circuits and Electronics | |||
| Definition of Capacitors | 00:02:00 | ||
| Charge in a Capacitor | 00:03:00 | ||
| Current Through a Capacitor | 00:02:00 | ||
| Voltage Across a Capacitor | 00:04:00 | ||
| Energy Stored in a Capacitor | 00:06:00 | ||
| Series Capacitors | 00:06:00 | ||
| Parallel Capacitors | 00:04:00 | ||
| Series/Parallel Combination of Capacitors | 00:03:00 | ||
| Inductors and Their Uses in Electric Circuits and Electronics | |||
| Definition of Inductors | 00:02:00 | ||
| Voltage Across an Inductor | 00:01:00 | ||
| Current Through an Inductor | 00:03:00 | ||
| Series Inductors | 00:03:00 | ||
| Parallel Inductors | 00:06:00 | ||
| Series/Parallel Combination of Inductors | 00:05:00 | ||
| First Order Transient Electric Circuits | |||
| First-Order Transient Circuits – Introduction | 00:07:00 | ||
| Series RC Circuits | 00:13:00 | ||
| Google Review | |||
| Google Review | 00:00:00 | ||
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