Analog Electronics 2

• 26 hrs lectures
• 6 hrs exercises
• 13 hrs laboratories
• 13 hrs pc labs

The graduate (1) understands problems of selected practically oriented areas (emphasis of design) of analog electronics. The area of gained skills belongs to knowledge of fundamental principle of shaping and switching applications, simple transistor stages and comparators, non-sinusoidal signal generation, etc. The graduate (2) is able to evaluate suitability of active elements for expected application, (3) to select optimal approach, topology, concept, (4) to design/calculate values of circuit elements for specific required operational parameters and (5) to verify operation of circuit by computer simulation and experimentally in laboratory.

Lectures aim on specific areas of analog circuits and systems focused on impulse, switching, comparative and other linear and nonlinear applications of transistors, operational amplifiers and modern active elements. In addition, these activities target especially on practical utilization of gained knowledge.

Students registering for the course should be able to explain the basic principles of electrotechnics, electronic elements, high-school mathematics, basis of experimental work and basis of computer simulation.

• SENANI, Raj, D. R BHASKAR, R. K SHARMA a V. K SINGH. Sinusoidal Oscillators and Waveform Generators using Modern Electronic Circuit Building Blocks. Imprint: Springer, 2016. ISBN 9783319237114.

1. Propagation of signal by linear and nonlinear system (two-ports, time constants, transient responses, parameters of square-wave signal)
2. Diode shapers, limiters and their applications
3. Practical features of basic bipolar junction transistors and unipolar transistors based building blocks (current mirror, differential pair, operational amplifier)
4. Design of simple amplification stages with bipolar junction transistor and unipolar transistor (parameters and bias point)
5. Bipolar junction transistor and unipolar transistor based power switches
6. Guidelines for practical work with operational amplifiers (parasitic behavior, parasitic features and protection)
7. Analog comparators (suitable active elements, typical topologies and design)
8. Operational amplifiers in selected applications
9. Discrete and integrated flip-flop circuits (transistor-based bistable, monostable and astable version, NE555, another active elements)
10. Design of tunable single- and multi-phase oscillators
11. Design of tunable non-sinusoidal waveform generators
12. Additional principles of signal generation (noise, heterodyne, phase locked loop)
13. Modern active elements for design of analog circuits and examples of applications

1. Propagation of signal by linear system (time constants, step responses, parameters of square-wave signal), design of diode shapers and limiters
2. Calculations in basic transistor-based building blocks (current mirror, differential pair, operational amplifier) and design of simple amplification stages with bipolar junction transistor and unipolar transistor
3. Bipolar junction transistor and unipolar transistor-based power switches and design of comparators (topologies, thresholds)
4. Design of flip-flop circuits and applications of NE555
5. Design of tunable oscillators and waveform generators
6. Design of phase locked loop

1. Diode shapers and limiters
2. Unipolar transistor-based amplifiers
3. Parameters of transistor switches
4. Analog comparators and their applications
5. Discrete flip-flop circuits and NE555
6. Harmonic oscillators
7. Discrete and integrated generators of waveforms
8. Principles of RF signal generation

1. Propagation of signal by linear and nonlinear system
2. Diode shapers and limiters
3. Simple amplification stages with unipolar transistor (parameters and bias point)
4. Bipolar junction transistor and unipolar transistor based power switches
5. Analog comparators (suitable active elements, typical topologies and design)
6. Discrete and integrated flip-flop circuits (transistor-based bistable, monostable and astable version, NE555)
7. Principles of signal generation I (tunable oscillators and waveform generators)
8. Principles of signal generation II (RF, noise, synthesis)

During the semester, student can obtain up to 16 points for his activity in laboratory, up to 16 points for his activity at computer exercises, up to 8 points for test and up to 60 points for final exam (50 points for written form + 10 points for optional discussion).

Teaching methods include lectures, computer exercises and practical laboratories. All materials are available in e-learning.

The content and forms of instruction in the evaluated course are specified by a regulation issued by the lecturer responsible for the course annually.