Online Electrical Engineering Courses

Design, analyze, and control electrical systems — covering circuits, schematics, simulation, and industrial control.

Analyse circuits, electrical systems, and electronic components
Calculate voltage, current, power, impedance, and circuit behaviour
Study power systems, electric machines, control, and electrical design

Why Choose WiredWhite

Approved by PhD Engineers

The quality of the online courses on our platform is important to us. Therefore, the content of the Online Courses offered on our platform are screened and approved by the Founder Team of WiredWhite, who are experienced engineers with PhD qualification.

Tutoring Lessons

Our platform is dedicated to an excellent learning experience. Therefore, you can not only learn by yourself using our online courses, but you can also schedule Online Tutoring Lessons with our course instructors or any other engineering experts whose skills match your request.

Learning Tools

Benefit from a seamless learning experience with our integrated tools such as online classrooms, chats, whiteboards, etc. Write private messages to tutors, schedule online calls using their booking calendar and make use of our integrated project management system.

Built for Engineers

WiredWhite is an engineering and technology specialized platform. Besides online courses and a huge network of engineering professionals, you will find meaningful articles, webinars, job opportunities – everything you need for a successful and thriving career in engineering.

Job Opportunities

Combine upgrading your engineering skills with finding exciting job opportunities. Just be active on the platform, gain new skills and become part of our industry projects.

Electrical engineering deals with the systems and equipment that generate, distribute, convert, measure, and control electrical energy. Show more

It covers much more than circuit theory. The same principles are used in power systems, electric machines, industrial drives, automation, electronics, instrumentation, and control. Depending on the subject, the work can involve anything from calculating a simple circuit to modelling a motor, checking a control system, or analysing how an electrical installation behaves under different operating conditions.

Why It's Worth Learning

A lot of electrical engineering work comes down to understanding why a system behaves the way it does. Something that looks right on paper can behave differently once it's built and running — and the only way to know why is to calculate, simulate, measure, and compare. That's what separates a proper diagnosis from guesswork, and it's the skill these courses are built around.

Who It's For

These courses cover different levels of electrical engineering, so they can be useful at several stages. They fit students working through circuit theory and related subjects, practising engineers who need a particular technical topic, and technicians dealing with electrical equipment in the field. They can also be relevant to automation, electronics, mechanical, and other engineers whose projects involve motors, sensors, drives, control systems, or electrical hardware.

What you will actually learn

DC and AC circuit analysis, phasors, resonance, power factor, and frequency response
Kirchhoff’s laws, nodal and mesh analysis, Thevenin and Norton equivalents
Semiconductor devices, rectifiers, amplifiers, and switching circuits
Digital logic, Boolean algebra, and digital circuit design
Sensors, transducers, signal conditioning, and data acquisition
Feedback, transfer functions, stability, and controller tuning
Electrical measurements, instrumentation, and interpreting measurement results

Where it is used in practice

Power and energy systems
Power generation, transmission, distribution, load analysis, protection, and power quality.
Industrial automation
Electrical drives, sensors, control cabinets, instrumentation, and automated production equipment.
Electronics and embedded systems
Analog and digital circuits, signal conditioning, power supplies, sensors, and electronic control boards.
Electric vehicles and transportation
Battery systems, inverters, electric drives, charging systems, and vehicle electrical networks.

Example tasks

Troubleshooting a circuit that does not produce the expected output
Selecting components for a circuit based on voltage, current, and power requirements
Comparing calculated circuit behaviour with measured results
Designing a control circuit for a specified system response
Checking an electrical system for faults, losses, and incorrect operating conditions