Electronics Engineering Course

Lesson 1 • Series and Parallel DC Circuits

Analyzes resistor configurations in series, parallel, and combined networks. Builds circuit-reduction skills essential for all subsequent circuit analysis.

Lesson 2 • Voltage, Current, and Resistance

Defines the three fundamental electrical quantities and their units. Connects these quantities through Ohm's Law for circuit analysis.

Lesson 3 • Thevenin and Norton Equivalent Circuits

Simplifies complex networks into two-terminal equivalents for load analysis. Enables efficient analysis of circuits with variable loads.

Lesson 4 • Kirchhoff's Laws and Network Analysis

Applies KVL and KCL to multi-loop circuits with multiple sources. Introduces systematic mesh and nodal analysis methods.

Lesson 1 • Resistors, Capacitors, and Inductors

Examines passive component types, tolerances, and frequency-dependent behavior. Establishes the basis for filter and energy-storage circuit design.

Lesson 2 • Integrated Circuit Packages and Testing

Surveys IC package types, pin identification, and basic functional testing. Prepares students for hands-on lab work with real components.

Lesson 3 • Bipolar Junction Transistors

Explains BJT structure, operating regions, and DC biasing techniques. Provides the foundation for amplifier and switching circuit design.

Lesson 4 • Field-Effect Transistors

Introduces JFET and MOSFET structures, transfer characteristics, and biasing. Highlights FET advantages in low-power and high-frequency applications.

Lesson 1 • Transformers and Mutual Inductance

Covers transformer operation, turns ratio, and equivalent circuit models. Connects AC theory to power distribution and impedance matching.

Lesson 2 • Sinusoidal Waveforms and Phasors

Defines sinusoidal parameters and introduces phasor representation for AC analysis. Bridges time-domain signals to frequency-domain calculations.

Lesson 3 • Resonance in RLC Circuits

Analyzes series and parallel resonance, bandwidth, and quality factor. Connects resonance theory to filter and tuned-circuit design.

Lesson 4 • Impedance and AC Circuit Laws

Extends Ohm's Law and Kirchhoff's Laws to impedance-based AC circuits. Enables analysis of resistive, capacitive, and inductive networks at any frequency.

Lesson 1 • Amplifier Frequency Response and Stability

Evaluates high- and low-frequency roll-off using Miller effect and open-circuit time constants. Addresses stability criteria for feedback amplifiers.

Lesson 2 • Multi-Stage and Differential Amplifiers

Cascades amplifier stages and analyzes differential pairs for common-mode rejection. Prepares students for op-amp internal architecture understanding.

Lesson 3 • Single-Stage BJT Amplifiers

Analyzes voltage gain, input/output impedance, and frequency limits of CE, CB, and CC configurations. Builds core amplifier design competency.

Lesson 4 • Small-Signal Models and Parameters

Derives small-signal hybrid-pi and T-models for BJTs and FETs. Establishes the analytical framework for all amplifier gain calculations.

Lesson 1 • Active Filter Design

Implements Butterworth and Chebyshev low-pass, high-pass, and band-pass active filters. Applies frequency response theory to practical signal conditioning.

Lesson 2 • Real Op-Amp Limitations and Parameters

Quantifies offset voltage, bias current, slew rate, and bandwidth limitations. Teaches compensation strategies to meet real-world design specifications.

Lesson 3 • Ideal Op-Amp Model and Basic Configurations

Introduces the ideal op-amp model and analyzes inverting, non-inverting, and differential amplifiers. Establishes the virtual-ground analysis technique.

Lesson 4 • Precision Rectifiers and Signal Conditioning

Builds precision rectifiers, peak detectors, and sample-and-hold circuits using op-amps. Prepares students for sensor interface and data acquisition design.

Lesson 1 • Sequential Logic and Flip-Flops

Analyzes SR, D, JK, and T flip-flops and designs synchronous state machines. Introduces timing analysis and setup/hold time constraints.

Lesson 2 • Number Systems and Boolean Algebra

Converts between binary, octal, and hexadecimal systems and applies Boolean theorems. Provides the mathematical foundation for all digital logic design.

Lesson 3 • Registers, Counters, and Memory

Designs shift registers, binary counters, and introduces RAM and ROM architectures. Connects sequential logic to data storage and transfer applications.

Lesson 4 • Combinational Logic Design

Minimizes Boolean functions using Karnaugh maps and implements adders, multiplexers, and decoders. Builds systematic combinational circuit design skills.

Lesson 1 • Rectifier and AC-DC Conversion

Analyzes single- and three-phase rectifiers with capacitive and inductive filtering. Connects AC mains to regulated DC supply design.

Lesson 2 • Inverters and AC Motor Drives

Analyzes single- and three-phase inverter topologies and PWM modulation strategies. Connects power conversion to variable-speed motor drive systems.

Lesson 3 • DC-DC Converter Topologies

Designs buck, boost, and buck-boost converters using inductor volt-second balance. Provides core skills for switched-mode power supply design.

Lesson 4 • Feedback Control in Power Supplies

Applies voltage-mode and current-mode control loops to regulate DC-DC converters. Introduces compensation design for stable closed-loop power supply operation.

Lesson 1 • Microcontroller Architecture and Resources

Surveys CPU core, memory map, clock system, and peripheral modules of a representative microcontroller. Provides the hardware context for all firmware development.

Lesson 2 • Serial Communication Protocols

Implements UART, SPI, and I2C protocols for peripheral and inter-device communication. Develops protocol selection and debugging skills for embedded systems.

Lesson 3 • GPIO, Timers, and PWM Generation

Configures digital I/O ports, hardware timers, and PWM output modules. Connects microcontroller peripherals to real-world actuator and timing applications.

Lesson 4 • Analog Interfaces and ADC Design

Configures ADC modules, selects sampling rates, and designs signal conditioning front ends. Bridges analog sensor signals to digital processing.