You are here

F7ABBTEL - Theory of Electrical Engineering

14.2.2023 - In the summer semester 2022/2023, 10 exercises are planned in computer room B-435 and 4 exercises in laboratory A-11 (weeks 11-14), where the selected exercises will be measured. When creating the schedule, it is necessary to register for both the exercises in the PC classroom B-435 and the laboratory measurements in room A-11. Only exercises or laboratory measurements will take place in each week.

Code Completion Credits Range Language
F7ABBTEL Z,ZK 4 2P+2C English
Vztahy:
In order to register for the course F7ABBEO, the student must have successfully completed the course F7ABBTEL.
Garant předmětu:
Pavel Máša
Lecturer:
Pavel Máša
Tutor:
Pavel Máša, Marek Novák
Supervisor:
Department of Biomedical Technology
Synopsis:

Electric current, DC and AC currents. Electrical curcuits including R, L, C. Power of electric current, thermal effect of electric current. Distribution of electrical energy. Connection of the electrical systems. Input resistance and impedance, idle voltage, inner resistance and impedance of the source, mutual loading of the source and electrical appliance, impedance matching. Properties of circuits in time and frequency domain. Transient action in DC circuits, frequency characteristics of the L/C circuit. Electrical current in semiconductor, type of the conductivity, creation of the semiconductor crossing, properties in the forward and reverse direction. Bipolar transistor - transistor effect, basic principle in elementary circuit. Unipolar transistor. Unipolar transistors with complementary vodivosti (CMOS). Electromagnetic effects (induction, magnetization, force effect). Electromagnetic wave, spreading, interference, electromagnetic compatibility. Soft and hard magnetic materials. Transformers construction and parameters. Magnetic recording and reproduction of signals. Electromotors principles.

Requirements:
Syllabus of lectures:

1.Electric current, DC and AC currents.

2.Electrical curcuits including R, L, C.

3.Power of electric current, thermal effect of electric current. Distribution of electrical energy. Connection of the electrical systems.

4.Input resistance and impedance, idle voltage, inner resistance and impedance of the source, mutual loading of the source and electrical appliance, impedance matching.

5.Properties of circuits in time and frequency domain. Transient action in DC circuits, frequency characteristics of the L/C circuit.

6.Electrical current in semiconductor, type of the conductivity, creation of the semiconductor crossing, properties in the forward and reverse direction.

7.Bipolar transistor - transistor effect, basic principle in elementary circuit. Unipolar transistor.

8.Unipolar transistors with complementary vodivosti (CMOS).

9.Electromagnetic effects (induction, magnetization, force effect).

10.Electromagnetic wave, spreading, interference, electromagnetic compatibility.

11.Soft and hard magnetic materials.

12.Transformers construction and parameters.

13.Magnetic recording and reproduction of signals.

14.Electromotors principles.

Syllabus of tutorials:

1.Seminar - computational task - DC circuits

2.Seminar - computational task - DC circuits

3.Seminar - computational task - DC circuits

4.Seminar - computational task - DC circuits

5.Seminar - computational task - harmonic steady state

6.Seminar - computational task - harmonic steady state

7.Seminar - computational task - harmonic steady state

8.Seminar - computational task - harmonic steady state

9.Seminar - computational task - circuit equations

10.Seminar - computational task - circuit equations

11.Laboratory exercise 1

12.Laboratory exercise 2

13.Laboratory exercise 3

14.Laboratory exercise 4

Study Objective:

To introduce students to the methods of electrical circuits analysis for steady state in DC linear circuits and in the harmonic steady state in AC circuits by means of the circuit equations configured by loop currents and knot voltages. The most important tasks are the solution of the circuits based on the Thevenin and Norton theorem. The methodology of the magnetic circuits solutions is included as well.

Study materials:

[1] Havlíček, V., Čmejla, R.: Basic circuit theory I-Exercises. 2. vydání. Praha: ČVUT, 2002.

[2] Havlíček,V., Čmejla, R., Zemánek, I.: Basic circuit theory II. - excercises. 1. vydání. Praha: ČVUT, 1997.

[3] Mikulec, M., Havlíček, V.: Basic Circuit Theory. 2. vydání. Praha: ČVUT, 2005.

[4] Foit, J.: Basic Electronics. 1. vydání. Praha: ČVUT, 2005.

[5] Foit, J., Vobecký, J., Záhlava, V.: Electronics. Laboratory Measurements. 1. vydání. Praha: ČVUT, 2005.

[6] Foit, J., Vobecký, J., Záhlava, V.: Electronics - Laboratory Measurements. dotisk 1. vydání. Praha: ČVUT, 2007.

Note:
The course is a part of the following study plans:
Downloads:

Others - link: 

https://harm.fbmi.cvut.cz/B222/F7ABBTEL/tut | Exercises - labs timeschedule