T1: Introduction to Electronics Engineering Fundamentals
1.1. Course presentation, schedule, contents, sessions, evaluation, bibliography.
1.2. Analog and digital signals. Description.
1.3. Analog and digital signal parameters.
T2: Digital Electronics
2.1. Fundamentals of digital electronics. Numbering and coding in digital systems. Boolean algebra. Logic gates.
2.2. Basic logic functions and Boolean rules for simplification.
2.3. Combinational circuits. Multiplexer, decoder.
2.4. Synchronous sequential systems. D-type flip-flop. Counters.
2.5. Memories. Programmable logic. Integrated electronic circuits. Hardware description languages.
T3: Passive electronic components.
3.1. Resistors. Capacitors. Inductors. Types, characteristics.
3.2. Overview of electric circuit theory basics: Ohm, Kirchhoff, Thevenin, Norton, Superposition theorem.
3.3. Simulation of analog electronic circuits (LTSpice).
T4: Filters and electronic instrumentation
4.1. Passive electronic circuits. RC filters. Bode diagram.
4.2. Electronic measurement equipment. Measuring voltages and currents. Power sources, generators, multimeters, oscilloscope.
T5: Active electronic components
5.1. Introduction to semiconductors.
5.2. Diode: pn junction. Characteristic curve, diode models. Types.
5.3. Limiting and clampling circuits. Half-wave and full-wave rectifiers w/ and w/o filter.
5.4. Transistor types. MOSFET transistor. N- and P-channel enhancement MOSFET: structure and functional description, characteristic curves, operating zones, equations, biasing.
T6: Analog Subsystems
6.1. Amplification: concept, parameters of interest. Types of amplifiers.
6.2. Ideal operational amplifier: functional description and operation. Stable operational amplifier based topologies (inverting, non-inverting, buffer, instrumentation amplifier, adder)
6.3. Operational amplifier as a comparator.
- Introduction to the laboratory instrumentation
- P1. Digital System - Counter.
- P2: RC Circuit and Diode Circuit.
- P3: MOSFET Circuit y Amplifier Circuit.