
Diploma In Electrostatics, Capacitors And Electromagnetism
Published 7/2026
Created by Addae Valentine
MP4 | Video: h264, 1920x1080 | Audio: AAC, 44.1 KHz, 2 Ch
Level: Intermediate | Genre: eLearning | Language: English | Duration: 18 Lectures ( 4h 26m ) | Size: 1.9 GB
Master Coulomb's law, electric fields, capacitance, magnetic fields, electromagnetic forces and induction
What you'll learn
Requirements
Description
Electrostatics and electromagnetism are essential areas of electrical engineering, electronics, physics and industrial technology. A strong understanding of these subjects is necessary for studying capacitors, electric machines, transformers, generators, motors, relays, sensors, transmission systems and many other electrical devices.
This course provides a clear and practical introduction to electrostatics, capacitance, magnetic fields and electromagnetic induction. It is designed to help students understand the important principles behind electric charges, electric fields, capacitors and magnetic effects without making the subject unnecessarily difficult. The course begins with the basic meaning of electrostatics and explains how stationary electric charges interact. You will study Coulomb's law and learn how to calculate the force of attraction or repulsion between charged particles. You will also learn how electric field strength is determined at different points around electric charges.
The course then introduces capacitors and capacitance. You will understand how capacitors store electric charge, the factors that affect capacitance and how parallel-plate capacitors operate. Several solved problems are included to help you apply capacitance equations confidently.
You will also learn how capacitors behave when connected in series and parallel. The course explains how to calculate equivalent capacitance, charge, voltage and energy in capacitor networks. Examinable questions are included to prepare students for tests, assignments and engineering examinations.
The second major part of the course focuses on electromagnetism. You will learn how electric current produces a magnetic field and how magnetic flux and magnetic flux density are calculated. The course explains the forces acting on current-carrying conductors and moving electric charges within magnetic fields.
Finally, you will study electromagnetic induction and understand how a changing magnetic field produces an induced electromotive force. The course includes worked examples that demonstrate how electromagnetic principles are applied in practical and examination-based problems.
By the end of the course, you should be able to explain the relationship between electric charges, electric fields, capacitors, electric current, magnetic fields and induced voltage. You should also be able to solve a wide range of numerical problems involving electrostatics, capacitance and electromagnetism.
Who this course is for
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