AE08 CIRCUIT
THEORY AND DESIGN
1.1 Resistance,
capacitance and inductance parameters and their terminal properties.
1.2 Voltage
and current sources – dependent and independent.
1.3 Coupled
coils.
I [1, 2]; II [5]
2. Foundations of Network Analysis
6 hours
2.1 Topological
descriptions of networks.
2.2 KCL,
KVL.
2.3 Number
of network equations.
2.4 Source
transformations.
2.5 Examples
of formulation of network equations.
2.6 Loop
and node variable analysis and their solutions.
2.7 Duality.
I
[2, 3]
3. Transient Response
6 hours
3.1 RL
and RC networks – free and forced responses , initial conditions.
3.2 RLC
networks – free and forced responses, initial conditions.
3.3 Transient
response and s-plane roots.
3.4 Continuity
of current in coupled coils on switching.
I
[4, 5], II [5]
4. Transform Methods, Network Functions,
Network Theorems 6 Hours
4.1 Concept
of complex frequency.
4.2 Transform
impedance and transformed circuits.
4.3 Superposition
and reciprocity.
4.4 Thevenin’s
and Norton’s theorems.
4.5 Network
functions for one and two-ports.
4.6 Calculation
of network functions.
4.7 Poles
and zeros.
4.8 Time
domain behaviour from pole zero plots.
I
[9, 10]; II [7]
5. Sinusoidal Steady State Analysis 3 hours
5.1 Meaning
of the term.
5.2 Sinusoidal
analysis using exp(jwt) excitation.
5.3 Phasors
and phasor diagrams.
I
[12]
6. Energy and Power 3 hours
6.1 Energy
and power in L, C and R elements.
6.2 Effective
and RMS values.
6.3 Average
and complex power.
6.4 Maximum
power transfer theorem and its applications.
6.5 Tellegen’s
theorem.
I
[14]
7.
Resonance
6
hours
7.1 Amplitude
and phase response, minimum phase functions.
7.2 Single
tuned circuits.
7.3 Double
tuned circuits.
7.4 Poles,
zeros and time delay.
II
[8]
8. Two-port Networks 9
hours
8.1 Two-port
parameters (z, y, h, ABCD) and their interrelationships.
8.2 Transfer
functions using two-port parameters.
8.3 Interconnection
of two-ports.
8.4 Analysis
of ladder networks.
II
[9]
9. Elements of Realizability Theory
3
hours
9.1 Causality
and stability.
9.2 Hurwitz
polynomials.
9.3 Positive
real functions.
9.4 Elementary
synthesis procedures.
II
[10]
10.
Synthesis of Two Element Kind One
ports
6
hours
10.1 Properties
of LC immittance functions.
10.2 Synthesis
of LC Driving Point Immittances (DPI).
10.3 Properties
of RC DPI’s .
10.4 Synthesis
of RC DPI’s.
10.5 Properties
and synthesis of RL DPI’s.
10.6 Synthesis
of certain RLC DPI’s.
II
[11]
11. Elements of Transfer
Function Synthesis 6 hours
11.1 Properties
of transfer functions.
11.2 Zeros
of transmission.
11.3 Synthesis
of transfer immittances with resistive termination.
11.4 Constant
resistance networks.
II[12]
12. Approximation
Theory 3 hours
12.1
Maximally flat low pass filter approximation.
12.2
Chebyshev approximation.
12.3
Synthesis of low-pass filters.
12.4
Magnitude and frequency scaling.
12.5
Frequency transformations (13.10).
II
[13]
Text Books
I.
M E Van Valkenburg, “Network
Analysis”, Prentice Hall of India, 1997.
II.
F F Kuo, “Network Analysis and
Synthesis”, Wiley, 1990.