SULEYMAN DEMIREL UNIVERSITY

Computer Engineering Faculty

Chair Informatics

Syllabus

Discipline: EE 201 Basic Circuit Theory

Number of credits: 3 credits (2/2/1)

Term: Fall 2011

Instructor’s full name: Dr. Larissa Kiziyeva, M.Sc. Tosik Cemil

Information on the instructor	Time and place		Contact information
	Room	Office hours (TSIS)	Tel.:	e-mail
Larissa A. Kiziyeva	304	Monday, Tuesday 15-30- 17-30	-	[e-mail]
Tosik Cemil	302	Tuesday, Fraday 15-30- 17-30	-	[e-mail]

Pre-requisites

Algebra and Geometry, Calculus, Physics

Course goals and objectives

EE 201 is designed to educate students about the analysis of basic electrical circuits. Its purpose is to present, as clearly and completely as possible, the transient and the steady state responses of basic circuit elements such as resistors, capacitors, and inductors.

Literature

Required

1. Thomas R. E and Rosa A. J. – The Analysis and Design of Linear Circuits – Prentice Hall, International edition, 1998.

Supplementary

2. Desoer C. A. and Kuh E. S. – Basic Circuit Theory - McGraw-Hill, International edition, 1969.

3. James W. Nilsson and Susan A. Riedel.- Electric Circuits - Prentice Hall, International edition, 2008

4. Don H. Johnson, J.D. Rise.- Fundamentals of Electrical Engineering, Rice University, 1999.

5. Kiziyeva L. Basic circuit theory. Test questions with solutions. – Almaty, 2006.

6. Кизиева Л. А. Теория линейных электрических цепей. (примеры тестовых задний с решениями). – Алматы, 2006.

Course Structure:

Total: 15 weeks - Sep 19, 2011 – Dec 30, 2011

Lectures – 2 h/wk

Lab session – 1 h/wk

Grading criteria

Types of tasks	Scores
Attendance and participation	-
Laboratory works	20
Quizzes	20
SSS: homework	5
SSSI: practices	10
Mid-term exam	15
Final exam	30
Total	100

The form the schedule of performance and delivery of works

№

Type of evaluation

Week

Total

1

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16-17

1

Attendance and participation

*

*

*

*

*

*

*

*

*

*

*

*

*

*

*

-

2

Laboratory works

*

*

*

*

*

*

*

*

*

*

*

*

*

*

*

20

3

Quizzes

*

*

*

*

*

*

*

20

4

SSS: homework

*

*

*

*

*

*

*

*

*

*

*

*

*

*

*

5

5

SSSI: practice

*

*

*

*

*

*

*

*

*

*

*

*

*

*

*

10

6

Mid-term exam

*

15

7

Final exam

*

30

Total

100

week	Name of the topic and content	Literature
1	Introduction Circuit variables Kirchhoff’s laws Equivalent circuits Resistors in series, in parallel, in star, in delta Equivalent sourses Voltage and current division Circuit reduction	[1]. Ch.1, pp.3-15, Ch.2, pp. 21-67
2	Circuit analysis techniques Node-voltage analysis Mesh-current analysis Linearity properties (unit output method)	[1]. Ch.3, pp.84-114
3	Thevenin and Norton circuits Superposition principle Thevenin equivalent circuit Norton equivalent circuit	[3].Ch.3, pp. 114-147
4	Waveforms and their characteristics. Capacitance and inductance Types of waveforms Step waveform Exponential waveform Sinusoidal waveform Capacitance Inductance	[1]. Ch.5, pp. 255-296, Ch.6, pp. 305- 332
5	Mutual inductance I-v-characterisyics Mutual inductance Application of mutual inductance	[1]. Ch.6, pp. 332-345.
6	First-order circuits RC and RL circuits Zero-input response of first-order circuits First-order circuit step response First-order circuit sinusoidal response	[1]. Ch.7, pp. 357-391
7	Second-order circuits Series RLC circuit Zero-input response of the series RLC circuit Parallel RLC circuit Second-order circuit step response	[1]. Ch.7, pp. 391-420.
8	Phasors Sinusoids and phasors Phasor circuit analysis The impedance concept Equivalence with phasors	[1]. Ch.8, pp. 433-460.
9	Basic and General circuit analysis with phasors Proportionality Superposition Thevenin and Norton equivalent circuits Power Maximum power transfer	[1]. Ch.8, pp. 460-498.
10	Tow-port circuits Network analysis The equivalent circuit of the Z-parameter model The equivalent circuit of theY-parameter model The equivalent circuit of the h-parameter model	[3].Ch.18, pp. 730-751
11	Analog filter design The effects of frequency and the model The three frequency ranges of operation The mid-frequency range The low frequency range The high frequency range Filter prototypes	[3]. Ch.15, pp. 606-645.
12	Laplace transforms Basic Laplace transform properties Transformed circuits Impedance and admittance	[1].Ch.9,pp. 518-528,Ch.10,pp. 569-584.
13	Laplace transforms circuit analysis Basic circuit analysis in the s-domain Circuit theorems in the s-domain Node-voltage analysis in the s-domain Mesh-current analysis in the s-domain	[1].Ch.10,pp. 584-619
14	Fourier series Basic Fourier series Alternative form of the Fourier series	[1].Ch.15, pp. 881-893.
15	Fourier transforms application Waveform symmetries Rms value and average power Calculation of signals applying Fourier series	[1]. Ch.15, pp. 893-910