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Electrical and Electronic Engineering Training

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Electrical and Electronic Engineering Training

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Electrical and Electronic Engineering Training

Master the full spectrum of electrical and electronic engineering, from fundamental circuit laws to advanced analog design, digital logic, and power systems. This course gives you the rigorous technical foundation employers and graduate programs demand. Build real competence across every core discipline — and the confidence to apply it.

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What you will learn:

You will start with the foundational laws governing voltage, current, and power, then advance through systematic DC and AC circuit analysis using phasors and impedance. From there, you will study semiconductor physics, diode circuits, BJTs, and MOSFETs before moving into amplifier design and feedback theory. The course covers digital electronics from Boolean algebra through finite state machine design, and extends into power systems, transformers, and rotating machines. Supplementary material includes control systems, embedded microcontrollers, transmission lines, and PCB prototyping, giving you a complete engineering skill set.

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Course content

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

Chapter 1See details

Foundations of Electrical Engineering

Lesson 1 • Series and Parallel Resistor Networks
Derives equivalent resistance for series and parallel combinations. Enables simplification of complex resistive networks into single-element equivalents.
Lesson 2 • Resistance and Ohm's Law
Introduces resistance as opposition to current and derives Ohm's law. Provides the primary tool for relating voltage, current, and resistance in linear elements.
Lesson 3 • Kirchhoff's Laws
Presents KCL and KVL as universal constraints on circuit variables. These laws underpin every systematic circuit analysis method introduced later.
Lesson 4 • Charge, Current, and Voltage
Defines fundamental electrical quantities and their SI units. Connects atomic structure to macroscopic electrical behavior observed in circuits.
Lesson 5 • Power and Energy in Circuits
Quantifies electrical power and energy consumption using voltage and current. Establishes energy conservation as a governing principle for circuit analysis.

Chapter 2See details

DC Circuit Analysis Techniques

Lesson 1 • Superposition and Linearity
Applies the superposition principle to circuits with multiple independent sources. Reinforces linearity as a property that enables decomposition of complex problems.
Lesson 2 • Independent and Dependent Sources
Distinguishes voltage and current sources and introduces dependent source models. Accurate source modeling is prerequisite to all systematic analysis methods.
Lesson 3 • Node-Voltage Method
Formulates circuit equations using node voltages as unknowns. Reduces circuit analysis to solving a linear system derived from KCL.
Lesson 4 • Thevenin and Norton Equivalents
Reduces any linear two-terminal network to a simple equivalent circuit. Enables efficient analysis of load variations without re-solving the full network.
Lesson 5 • Mesh-Current Method
Formulates circuit equations using mesh currents as unknowns. Complements node-voltage analysis and is preferred for planar circuits with few meshes.

Chapter 3See details

Capacitors, Inductors, and Transient Response

Lesson 1 • First-Order RC and RL Circuits
Derives natural and step responses of RC and RL circuits using differential equations. Introduces the time constant as the key parameter governing transient speed.
Lesson 2 • Second-Order RLC Circuits
Analyzes series and parallel RLC circuits exhibiting overdamped, critically damped, and underdamped responses. Connects damping ratio and natural frequency to circuit parameters.
Lesson 3 • Inductor Fundamentals
Defines inductance, magnetic flux linkage, and the voltage-current relationship. Establishes how inductors oppose instantaneous current changes in circuits.
Lesson 4 • Practical Transient Analysis Applications
Applies transient analysis to switching circuits, pulse inputs, and real component behavior. Bridges theoretical differential equation solutions to engineering design decisions.
Lesson 5 • Capacitor Fundamentals
Defines capacitance, charge storage, and the voltage-current relationship. Establishes how capacitors oppose instantaneous voltage changes in circuits.

Chapter 4See details

AC Circuit Analysis and Phasors

Lesson 1 • Sinusoidal Signals and Their Properties
Characterizes sinusoidal waveforms by amplitude, frequency, and phase. Establishes the mathematical form used throughout AC analysis.
Lesson 2 • Phasor Representation
Transforms sinusoidal time-domain signals into complex phasors. Converts differential equations into algebraic equations solvable with DC techniques.
Lesson 3 • Impedance and Admittance
Defines impedance for resistors, capacitors, and inductors in the phasor domain. Enables direct application of Ohm's law and network theorems to AC circuits.
Lesson 4 • AC Power Analysis
Defines real, reactive, and apparent power for AC circuits. Introduces power factor as a key efficiency metric in AC power delivery.
Lesson 5 • Resonance in AC Circuits
Analyzes series and parallel resonance conditions and their frequency-selective behavior. Connects resonance to bandwidth and quality factor for filter design.

Chapter 5See details

Electronic Devices and Semiconductor Physics

Lesson 1 • Diode Circuit Applications
Applies diode models to rectifier, clipper, and clamper circuits. Connects device characteristics to practical signal-processing and power-conversion functions.
Lesson 2 • Bipolar Junction Transistor Operation
Explains BJT structure, current gain, and operating regions. Establishes the BJT as a current-controlled amplifying and switching device.
Lesson 3 • MOSFET Operation and Characteristics
Explains MOSFET structure, threshold voltage, and drain current equations. Establishes the MOSFET as the dominant device in modern digital and analog circuits.
Lesson 4 • P-N Junction Diode
Analyzes depletion region formation, forward bias, and reverse bias in p-n junctions. Derives the diode equation and identifies key operating regions.
Lesson 5 • Semiconductor Physics Fundamentals
Explains energy bands, intrinsic carriers, and doping in semiconductors. Provides the physical basis for understanding p-n junction and transistor behavior.

Chapter 6See details

Analog Circuit Design and Amplifiers

Lesson 1 • Feedback and Stability in Amplifiers
Applies negative feedback theory to improve gain stability, bandwidth, and distortion. Analyzes stability margins to prevent oscillation in feedback amplifiers.
Lesson 2 • Operational Amplifier Fundamentals
Introduces the ideal op-amp model and virtual short-circuit concept. Enables rapid analysis of inverting, non-inverting, and differential amplifier topologies.
Lesson 3 • Single-Stage Amplifier Configurations
Analyzes common-emitter, common-source, common-base, and common-gate configurations. Compares gain, input impedance, and output impedance across configurations.
Lesson 4 • Small-Signal Models and Biasing
Derives small-signal equivalent circuits for BJTs and MOSFETs. Establishes stable DC operating points as the prerequisite for linear amplifier operation.
Lesson 5 • Frequency Response of Amplifiers
Analyzes gain variation with frequency using Bode plots and pole-zero concepts. Identifies dominant poles and bandwidth limitations in amplifier designs.

Chapter 7See details

Digital Electronics and Logic Design

Lesson 1 • Number Systems and Binary Arithmetic
Converts between binary, octal, hexadecimal, and decimal number systems. Introduces signed number representations and binary arithmetic operations.
Lesson 2 • Combinational Logic Circuit Design
Designs adders, multiplexers, decoders, and comparators from Boolean specifications. Connects combinational building blocks to arithmetic and data-routing functions.
Lesson 3 • Sequential Logic and Flip-Flops
Introduces latches and flip-flops as memory elements in sequential circuits. Establishes clocked operation and state storage as the basis for registers and counters.
Lesson 4 • Finite State Machine Design
Designs Mealy and Moore finite state machines from behavioral specifications. Applies state minimization and state encoding to produce efficient sequential circuits.
Lesson 5 • Boolean Algebra and Logic Gates
Applies Boolean theorems and De Morgan's laws to simplify logic expressions. Implements simplified expressions using standard logic gate families.

Chapter 8See details

Power Systems and Electrical Machines

Lesson 1 • Three-Phase Power Systems
Derives balanced three-phase voltage and current relationships for wye and delta configurations. Calculates three-phase power and compares it to single-phase delivery.
Lesson 2 • Transformer Principles and Models
Derives the ideal transformer equations and develops the equivalent circuit model. Analyzes voltage regulation and efficiency under varying load conditions.
Lesson 3 • Induction Motor Principles
Analyzes rotating magnetic field creation and slip in three-phase induction motors. Derives the equivalent circuit and torque-speed characteristic for motor selection.
Lesson 4 • Power Quality and Protection
Identifies harmonics, voltage sags, and transients as power quality disturbances. Introduces protective relaying and fuse coordination for system safety.
Lesson 5 • DC Machine Operation
Explains DC motor and generator principles using electromagnetic torque and back-EMF. Analyzes separately excited, shunt, and series machine configurations.

Certification

Your valid completion certificate

This course is for you:

Electrical engineering students: seeking a structured, comprehensive academic reference.
Electronics hobbyists: ready to move beyond trial-and-error into principled circuit understanding.
Mechanical engineers: expanding their skill set to include electrical and electronic systems.
Career changers: entering the electrical field from unrelated technical or non-technical backgrounds.
Technicians: aiming to deepen theoretical knowledge behind the hands-on work they already do.
Physics graduates: translating strong theoretical backgrounds into applied engineering competence.

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