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Electronics Training Course

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Electronics

Electronics Training Course

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Electronics Training Course

4.2

Master electronics from the ground up — from basic DC circuits to op-amps, digital logic, and microcontrollers. This comprehensive training course gives you the hands-on skills and technical knowledge employers demand. Whether you're entering the field or leveling up your career, this course delivers real, job-ready competence.

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What you will learn:

You'll start with electrical fundamentals and safety, then work through DC and AC circuit analysis, electronic components, and test equipment operation. From there, you'll study diode circuits, transistor amplifiers, and operational amplifiers used in real signal-processing applications. The course covers digital electronics, Boolean logic, flip-flops, and microcontroller programming with sensor interfacing. Supplementary modules address PCB design, switching power supplies, RF communication basics, and structured troubleshooting methods. By the end, you'll have the technical depth to analyze, build, and repair electronic systems with confidence.

How you study in practice Electronics Training Course

How you practice Electronics Training Course

For companies looking to train their teams

With Dedika for businesses, the course includes exercises and examples tailored to your own business and the way your company needs.

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Course Content

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

Chapter 1See details

Fundamentals of Electricity and Circuits

Lesson 1 • Voltage, Current, and Resistance
Defines the three fundamental electrical quantities and their units. Connects measurable quantities to real circuit behavior.
Lesson 2 • Kirchhoff's Laws and Network Analysis
Applies KVL and KCL to multi-loop circuits for systematic solution. Prepares students for complex network problems in later chapters.
Lesson 3 • Series and Parallel DC Circuits
Analyzes how components behave when connected in series, parallel, or combined configurations. Develops circuit reduction skills essential for advanced analysis.
Lesson 4 • Electrical Safety and Lab Practices
Introduces shock hazards, safe handling procedures, and proper use of protective equipment. Ensures safe behavior before hands-on lab work begins.
Lesson 5 • Atomic Structure and Electric Charge
Covers electrons, protons, and how charge movement creates current. Establishes the physical basis for all subsequent circuit analysis.

Chapter 2See details

Test Equipment and Measurement Techniques

Lesson 1 • Oscilloscope Fundamentals
Teaches time-domain waveform capture, triggering, and measurement of amplitude and frequency. Essential for analyzing AC signals and dynamic circuit behavior.
Lesson 2 • Signal Generators and Function Generators
Explains how to produce sine, square, and triangle waveforms for circuit testing. Enables students to stimulate circuits and observe responses systematically.
Lesson 3 • Systematic Fault-Finding Methods
Introduces half-split, signal injection, and signal tracing troubleshooting strategies. Builds a structured diagnostic mindset applicable to all circuit types.
Lesson 4 • Digital Multimeter Operation
Covers voltage, current, resistance, and continuity measurement using a DMM. Directly supports component testing and circuit troubleshooting tasks.
Lesson 5 • Power Supply Selection and Use
Covers bench power supply controls, current limiting, and voltage regulation verification. Ensures safe and accurate circuit powering during lab exercises.

Chapter 3See details

Electronic Components and Their Characteristics

Lesson 1 • Transistors: BJT and FET Basics
Introduces bipolar and field-effect transistor structures, terminals, and operating regions. Provides the component knowledge required for amplifier and switching circuits.
Lesson 2 • Resistors: Types and Applications
Covers fixed, variable, and specialty resistors along with color-code reading and tolerance. Connects component selection to circuit design requirements.
Lesson 3 • Semiconductor Diodes
Introduces P-N junction behavior, forward bias, reverse bias, and diode types. Establishes the foundation for rectifier and signal-processing circuits.
Lesson 4 • Inductors and Transformers
Covers magnetic field generation, inductance, and mutual coupling in transformers. Prepares students for AC and power supply circuit analysis.
Lesson 5 • Capacitors: Principles and Types
Explains charge storage, capacitance calculation, and dielectric materials. Builds understanding needed for AC circuit and filter analysis.

Chapter 4See details

AC Circuit Analysis and Frequency Response

Lesson 1 • Power Factor and AC Power
Distinguishes real, reactive, and apparent power and calculates power factor. Prepares students for power supply and energy-efficiency analysis.
Lesson 2 • Passive Filter Design
Covers low-pass, high-pass, band-pass, and band-stop RC and RL filter topologies. Provides practical design skills for signal conditioning and noise rejection.
Lesson 3 • Sinusoidal Waveforms and Phasors
Defines amplitude, frequency, phase, and RMS values of sinusoidal signals. Introduces phasor notation as a tool for simplifying AC calculations.
Lesson 4 • Impedance of R, L, and C Elements
Derives inductive and capacitive reactance and combines them into complex impedance. Extends DC circuit analysis methods to AC using impedance as a unified quantity.
Lesson 5 • Resonance in RLC Circuits
Analyzes series and parallel resonance, bandwidth, and quality factor. Connects resonance theory to filter and tuned-circuit design applications.

Chapter 5See details

Diode Circuits and Power Supplies

Lesson 1 • Zener Diode Voltage Regulation
Explains Zener breakdown, shunt regulator design, and load regulation limits. Introduces the simplest form of voltage regulation before IC regulators.
Lesson 2 • Clipper and Clamper Circuits
Analyzes diode clipping and clamping action on waveform shape and DC level. Builds signal-shaping skills used in communication and protection circuits.
Lesson 3 • Linear IC Voltage Regulators
Covers fixed and adjustable three-terminal regulator ICs, heat sinking, and protection. Enables students to design regulated supplies for practical applications.
Lesson 4 • Half-Wave and Full-Wave Rectifiers
Analyzes single-diode and bridge rectifier topologies and their output waveforms. Establishes the AC-to-DC conversion foundation for power supply design.
Lesson 5 • Filtering and Ripple Reduction
Covers capacitor filter design, ripple voltage calculation, and LC filter use. Connects rectifier output to smooth DC required by electronic circuits.

Chapter 6See details

Transistor Amplifier Circuits

Lesson 1 • FET Amplifier Circuits
Covers JFET and MOSFET biasing, transconductance, and common-source gain calculation. Provides design skills for high-input-impedance and low-noise amplifier stages.
Lesson 2 • Small-Signal BJT Amplifier Analysis
Uses the hybrid-pi model to calculate voltage gain, input, and output impedance. Connects DC bias design to AC small-signal performance prediction.
Lesson 3 • Amplifier Frequency Response
Analyzes low-frequency and high-frequency cutoff caused by coupling and junction capacitances. Enables students to predict and extend amplifier bandwidth.
Lesson 4 • Common-Base and Common-Collector Configurations
Analyzes CB and CC (emitter-follower) amplifier characteristics and typical applications. Expands the student's amplifier design toolkit beyond the common-emitter stage.
Lesson 5 • BJT Biasing and DC Operating Point
Covers fixed, voltage-divider, and emitter-stabilized bias networks and Q-point selection. Stable biasing is prerequisite to predictable amplifier gain and linearity.

Chapter 7See details

Operational Amplifiers and Linear ICs

Lesson 1 • Inverting and Non-Inverting Amplifiers
Derives closed-loop gain formulas for both configurations using negative feedback. Provides the most widely used op-amp circuit topologies for signal amplification.
Lesson 2 • Ideal Op-Amp Characteristics
Defines infinite gain, infinite input impedance, and zero output impedance assumptions. Establishes the ideal model used to derive all basic op-amp circuit equations.
Lesson 3 • Integrators, Differentiators, and Active Filters
Analyzes op-amp integrator and differentiator behavior and active filter topologies. Connects mathematical operations to practical signal-shaping and filtering circuits.
Lesson 4 • Summing, Difference, and Instrumentation Amplifiers
Covers weighted summing, differential subtraction, and high-CMRR instrumentation amplifier circuits. Extends op-amp skills to sensor signal conditioning and mixing applications.
Lesson 5 • Comparators and Oscillator Circuits
Covers open-loop comparator operation, hysteresis, and RC oscillator design. Prepares students for waveform generation and threshold-detection applications.

Chapter 8See details

Digital Electronics and Microcontroller Basics

Lesson 1 • Number Systems and Boolean Algebra
Covers binary, hexadecimal, and BCD representations and Boolean simplification techniques. Provides the mathematical foundation for all digital logic design.
Lesson 2 • Embedded Programming and Sensor Interfacing
Covers writing, compiling, and flashing basic C programs to read sensors and control outputs. Enables students to create functional embedded applications on real hardware.
Lesson 3 • Combinational Logic Circuits
Designs adders, multiplexers, decoders, and encoders using standard logic gates. Builds practical combinational circuit design skills from Boolean expressions.
Lesson 4 • Microcontroller Architecture and I/O
Introduces CPU, memory, GPIO, timers, and communication peripherals of a typical microcontroller. Connects digital logic concepts to embedded system hardware.
Lesson 5 • Sequential Logic and Flip-Flops
Analyzes SR, D, JK, and T flip-flops and their use in registers and counters. Introduces state-dependent behavior essential for memory and control circuits.

Certification

Your valid completion certificate

This course is for you:

Aspiring technicians: seeking a structured path into an electronics career.
Career changers: bringing transferable skills and ready for a technical pivot.
Military veterans: translating hands-on equipment experience into civilian credentials.
Hobbyist makers: wanting theory to back up their practical building experience.
Maintenance workers: expanding their skill set beyond mechanical or basic electrical tasks.
Engineering students: filling foundational gaps before tackling advanced coursework.

What our students say

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