EE 202
Instructors
Section 1: Emre Tuna, C-103
Section 2: Zafer Ünver, D-207
Section 3: Çağatay Candan,
EZ-11A
Section 4: Yeşim Serinağaoğlu, DZ-03
Section 5: Sencer
Koç, D-212
Reference Texts
1. Fundamentals of Electric
Circuits, C. K. Alexander and M. N. O. Sadiku,
McGraw-Hill Book Company.
2. Electric Circuits, J. W.
Nilsson and S. A. Riedel,
Pearson Prentice Hall.
Grading
Two midterm
examinations (28% each) and the final examination (44%).
Resit
Examination Policy
A student
i. missing any midterm examination without a valid excuse,
ii. having an average of less than 20 over 100 from the 2 midterm examinations
Course Web Site
http://www.eee.metu.edu.tr/~ccandan/ee202/EE202_Spring201314/
Course Outline
2. Complex frequency; complex exponential
function.
3. Natural response.
Natural frequencies; bounded/unbounded
responses;
modes and mode
excitation.
State transition
matrix.
4. Particular solutions for complex
exponential inputs.
Phasors; KVL
and KCL in the phasor domain; phasor
domain elements,
impedance and
admittance; phasor domain circuits.
1.
Periodic functions; average and effective values.
2.
Responses of LTI dynamic circuits to sinusoidal excitations;
transient/steady-state responses.
3.
Analysis of phasor domain circuits; phasor diagrams.
4.
Passive one-ports: resistive, inductive and capacitive one-ports.
5.
Superposition in the SSS.
6.
Instantaneous, average, complex, real, reactive and apparent
powers;
power factor;
conservation of power.
7.
Power calculations in the SSS; superposition in power calculations.
8.
Power factor correction.
9.
Maximum power transfer.
1. Three-phase voltage sources and loads; Y
and D connections.
2. Analysis of balanced three-phase circuits; phasor diagrams.
3. Power calculations.
IV. Complex Frequency
Domain Analysis (12 Hrs.)
1.
Laplace transformation.
Real rational
functions; poles and zeros; partial fraction expansion.
2.
Solution of formulation equation by Laplace transformation.
3.
Complex frequency domain voltages and currents; KVL and KCL in the complex frequency domain; complex frequency domain
elements, impedance and admittance;
complex frequency domain circuits.
4. Analysis of complex frequency domain
circuits.
5. System functions: input and transfer
functions; impulse response and
convolution integral;
step response; SSS response.
6. Two-port circuits:
impedance, admittance, hybrid, chain and scattering
representations.
V. Frequency
Response (10
Hrs.)
1. Frequency response functions; magnitude,
phase and time-delay characteristics.
2. First order lowpass,
highpass and allpass
passive LC filters.
Second order lowpass,
highpass, bandpass, bandstop and allpass passive LC
and active RC filters.
3. Parallel
and series resonance: resonant frequency, quality factor,
resonance circuits with finite-Q capacitors and
inductors.
4. Magnitude and frequency scalings.
5. Bode plots.
6. Design of Butterworth and Chebyshev filters.
VI. Time-Varying and
Nonlinear Dynamic Circuits (2 Hrs.)
1.
State-space formulation of time-varying and nonlinear dynamic circuits.