Loading...

Module Overview

This module concentrates on study of various concepts in electromagnetic induction, such as magnetic flux, induced emf and induced current in a conducting loop through the introduction to Faraday’s and Lenz’s laws. A derivation illustrating the energy transfer process and the balance of power due to electromagnetic induction is presented as well. Finally, the properties of inductors including inductance, stored energy and equivalent inductance in electric circuits are discussed in the module.

Introduction
 
The discussions in this module are heavily focused on the basic principles of Faraday’s and Lenz’s regarding electromagnetic induction. Many mathematic tools including derivative, integration, vector dot and cross products permeate the module. The right-hand rule is often referenced in the determination of induced emf and current direction which is one of the key concepts of this module. The last two units of the module are dedicated to inductors’ operating principle and properties; through inductors students can witness the linkage between electromagnetism and practical applications.
 
This module consists of a sequence of 9 videos with 2 step-by-step solved examples and 6 self-assessment questions. It is expected that the course instructor, will supplement the module with additional questions and possibly few laboratory exercises.
 
Prerequisites
 
Before starting this module, it will be helpful to be familiar with:
•    Vector dot product and cross product,
•    Integration and derivative,
•    Magnetic field and field lines.

Learning Outcomes

  • Be able to calculate magnetic flux through a loop
  • Understand how Faraday’s law relates to induced emf and induced current in a conducting loop
  • Determine the direction and size of induced emf using Lenz’s and Faraday’s laws
  • Calculate the amount of energy stored in an inductor
  • Analyze inductors connected in a network

Explore Modules

Please note that this preview is intended for exploration purposes only. If you'd like to use this interactive module in one of your courses,to ensure playback and tracking, you must upload the SCORM package (downloadable below) to your institution's Learning Management System (ex. Blackboard, D2L, Moodle, etc). 

PROJECT FILES
Type: Assessments
Title Author Description
Electromagnetic Induction - MCQ (Quiz) | Download File (115.6 KB) Prof. Belinda Wang

The multiple choice questions are intended for self-assessment of learner’s conceptual understanding of the module content
Type: Glossary
Title Author Description
Glossary | Download File (142.59 KB) Prof. Belinda Wang

This glossary contains definitions for the modules: Electric Charges and Forces, Electric Fields, Electric Potential and Potential Energy, Capacitance and Capacitor, Magnetic Fields and Forces, and Electromagnetic Induction.
Type: Illustrations
Title Author Description
Magnetic Flux | Download File (197.04 KB) Prof. Belinda Wang
Electomagnetic Induction | Download File (38.38 KB) Prof. Belinda Wang
Type: Modules
Title Author Description
V1_2015_Electromagnetic Induction (Storyline File) Prof. Belinda Wang

This Articulate Storyline File can be downloaded and modified to your specific learning objectives (within the bounds of the creative commons licensing selected for this file. This is encouraged, but any technical issues are not supported by the University of Toronto.
V1_2015_Electromagnetic Induction (Storyline SCORM Package) Prof. Belinda Wang

This Articulate Storyline SCORM package can be uploaded into your institution's Learning Management System.
V2_2021_Electromagnetic Induction (Rise SCORM Package) Prof. Belinda Wang

This Articulate Rise SCORM package can be uploaded into your institution's Learning Management System.
Type: Video Links
Title Author Description
Electromagnetic Induction - Introduction | Electromagnetic Induction - Introduction Prof. Belinda Wang

Introduction to Electromagnetic Induction
Faraday's Law | Faraday's Law Prof. Belinda Wang

Faraday's law is described in this video.
Electromagnetic Induction | Electromagnetic Induction Prof. Belinda Wang

The concept of electromagnetic induction is introduced in this video
Lenz's Law | Lenz's Law Prof. Belinda Wang

Lenz's law is described in this video
Faraday's Law Example | Faraday's Law Example Prof. Belinda Wang

An example using Faraday's and Lenz's laws
Induction-Energy Transfer | Induction-Energy Transfer Prof. Belinda Wang

The energy transfer process in electromagnetic induction
Inductor | Inductor Prof. Belinda Wang

The definition of inductance of an inductor is introduced in this video
Inductor-Stored Energy | Inductor-Stored Energy Prof. Belinda Wang

The stored energy in an inductor is discussed in this video
Inductive Network | Inductive Network Prof. Belinda Wang

The equivalent inductance of parellell or series connected inductors
Type: Other Files
Title Author Description
Induction Example | Download File (86.93 KB) Prof. Belinda Wang

A step-by-step example is intended to show learners how to apply concepts taught in the lecture videos to analyze and solve problems.
Inductance Example | Download File (73.5 KB) Prof. Belinda Wang

A step-by-step example is intended to show learners how to apply concepts taught in the lecture videos to analyze and solve problems.
Back to Parent Project
Electromagnetics and Circuits

This project is a set of 12 learning modules that support the teaching of foundational level electromagnetics and circuits in engineering programs. These modules could be used for an inverted or hybrid delivery of a first year course, or courses. We envision these modules partially or fully replacing in-person lectures, and being paired with in-person laboratories and other hands-on experiential learning activities to create an effective, active learning experience.

Project Lead(s): Prof. Belinda Wang
Project Collaborator(s): Dr. David G. NairnDr. Ajoy Opal
Project Team Members: Sean McAlary
Details
Used in:
ECE110

We'd appreciate your feedback!

If you're using this resource, we'd love to learn more! Please submit this (very quick) webform about your experience.