USING MATLAB AND SIMULINK
M. Riaz
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TABLE
OF CONTENTS
SIGNALS & CIRCUITS
1. Transients in an RLC series circuit
2. PID controller design using Ziegler-Nichols method
3. RLC switched circuit at zero current
4. On-off breaking in an RLC circuit
5. Fourier series decomposition of typical periodic
signals
6. 2D vector operations by means of arrows
7. Switch-mode inverter
8. 3-phase sinusoidal pulse-width modulation
9. Principle of space vector pulse-width modulation
10. Switch-mode dc-dc converter feeding an RLE circuit
11. Fourier decomposition of a sinusoidal PWM signal
12. Waves and space vectors in AC machines
13. Traveling waves in AC machines under sinusoidal
excitation
14. Traveling waves as space vectors
15. Variable-amplitude variable-frequency three-phase sinusoidal signals
16. Definition of space vectors
17. Geometric view of space vectors
18. Space vector representation of a three-phase signal
19. Nonlinear inductor model
20. Saturable inductor
21. Transformer excitation buildup
22. Single-phase rectifier circuit
23. Single-pulse rectifier circuit
24. Steady-state characteristics of an electromechanical
actuator
25. Transient operation of an electromechanical actuator
DC MOTOR DRIVES
1. DC motor transient running operation
2. DC motor ramp start
3. Automatic starter of a DC motor
4. DC motor with unipolar
PWM excitation
5. DC motor with bipolar PWM excitation
6. DC motor with controlled ac rectification
7. DC self-excited generator
8. Cascade speed control of a DC motor drive
9. Cascade position control of a DC motor drive (PI controller)
10. Cascade position control of a DC motor drive (hysteresis
controller)
INDUCTION MACHINES
1. Steady-state characteristics of induction machines
2. Steady-state characteristics derived from dynamic model
3. Parametric steady-state characteristics of induction
machines
4. Induction motor start :
a. Induction motor start in any of three common
reference frames [pu]
b. MATLAB script using fluxes as motor
state variables [pu]
c. MATLAB script using fluxes as motor state
variables [SI]
d. MATLAB
script using currents as motor state variables [SI]
e. Induction motor start in rotor flux frame [pu]
f. Induction motor start in abc phase variable model [pu]
g. Induction motor start with line impedance [pu]
h. Induction motor start with line impedance
[SI]
i. Static
and dynamic characteristics during line start [pu]
5. Transient operation of induction machines under 3-phase sinusoidal
excitation:
a. Transient runs of an induction motor modeled
as an S-function
b. Dynamics of an induction motor with
sinusoidal excitation [SI]
c. Transient runs of an induction motor modeled
as a space vector subsystem [SI]
d. Induction motor described in a script m- file
with fluxes as state variables [SI]
e. Induction motor described in a script m- file
with currents as state variables [SI]
f. Transient runs of an induction motor modeled
as a space vector subsystem [pu]
g. Same as above [pu]
h. Motor described in abc
phase variable model [SI]
i.
Transient runs of an induction motor described in rotor flux frame [pu]
j. Transient runs of an induction motor modeled
as a dq subsystem
k. Disconnecting and reapplying the supply the 3-phase
supply (residual voltage)
6. Single-phase capacitor induction motors:
a. Capacitor-start capacitor-run induction motor [dq]
b. Capacitor-start capacitor-run induction motor
[abc]
c. Capacitor-start single-phase induction motor
[dq]
d. Quasi-static characteristics of capacitor
induction motor
e. Steady-state characteristics of capacitor
single-phase induction motors
7. 6-pulse squarewave excitation of an induction motor
8. Sinusoidal PWM excitation of an induction motor
9. Induction motor characteristics under current
excitation
10. Scalar, vector, and direct torque control of induction motors :
a. Open-loop Volts/Hz start of an induction motor [dq]
b. Open-loop Volts/Hz start of an induction motor [abc]
c. Volts/Hz closed-loop speed control of
an induction motor drive
d. Indirect vector control with current
excitation
e. Effect of detuning a vector controlled
induction motor in steady state
f. Indirect vector control with closed-loop
speed control
g. Indirect vector control with voltage
excitation
h. Indirect vector control of a variable
frequency induction motor drive
i. Principle of direct
torque control
11. Doubly fed induction generator driven by a wind turbine:
a. Static characteristics
b. Dynamic characteristics (speed control at
generator side)
c. Excitation characteristics with generator
disconnected from grid
d. Grid connection and loading
e. Dynamic characteristics (speed control at
turbine by pitch controller)
SYNCHRONOUS MACHINES
1. V- and
compounding C-curves of a synchronous machine
2. Synchronous motor start using Simulink
3. Synchronization and loading of a synchronous machine
4. Short circuit of a synchronous machine (S-function
model) under load
5. Transient stability with various models of the
synchronous machine
6. Short circuit of an alternator initially open circuited
7. Sudden application of an R_L load on a synchronous
generator
8. Same as above with added voltage regulator
9. Transient stability of a synchronous machine
(swing curves)
10. Open-loop Volt/Hz control of a synchronous motor drive
11. Speed control of a permanent magnet synchronous motor
12. Phase variable model of the synchronous machine:
a. Elementary single-phase
synchronous machine
b. Synchronous motor start (round rotor)
c. Synchronous motor start (salient pole
rotor)
d.
Three-phase reluctance motor
e. Synchronizing an open-circuited
alternator to an infinite bus
f. Three-phase short applied to an
open-circuited alternator
g.
Load applied to a synchronous generator (round rotor)
h. Stability of an
alternator subjected to a cleared 3-phase fault
STEADY-STATE CHARACTERISTICS
1. Converting induction motor parameters from SI to pu values
2. Steady-state characteristics of induction machines
3. Rr and V/f control of induction motor
characteristics [pu]
4 Volts per Hertz speed control of induction
motor [SI]
5. Phasor representation of the induction machine
6. Phasor diagram of the induction machine
7. Phasor analysis and diagram of the (non salient) synchronous machine
8. Capability curves of the synchronous machine
9. Steady-state characteristics of the (salient) synchronous machine:
a. Phasor diagram
b. Dependency on torque angle with Ef as parameter
10. Steady-state characteristics of induction
machines (balanced)
11. Power flow and voltage stability in a 3-bus power
system
12. Characteristics of induction machines under unbalanced or asymmetrical
conditions:
a. dq model in
synchronous frame (balanced and symmetrical)
b. dq model in
stator frame (stator unbalance)
c. dq model in
arbitrary frame (balanced and symmetrical)
d. dq model of an
induction machine with a single-phase rotor (rotor frame)
e. Synchronous motor starting (rotor frame)
f.
Induction motor in SI units (stator frame)
g. Single phase capacitor motor (SI)
h. AC tachometer
ANIMATIONS
1. Movies
of machines, space vectors, and magnetic field distributions in motion
2. Magnetic field distribution produced in a sinusoidal distributed
winding by a sinusoidal current
3. Magnetic field distribution due to three-phase
excitation
4. Air gap flux plot due to three-phase excitation
5. Sinusoidal distributed windings in a three-phase ac machine
6. Space distribution of waves in a three-phase machine
7. Space vector representation of waves in a
three-phase ac machine
8. Combined space and vector distributions
9. Motion of space vectors in various reference frames
10. Wound rotor induction machine configuration
11. Squirrel-cage induction machine configuration
12. Waves in a squirrel-cage rotor of an induction motor
13. Synchronous machine
configuration
14. Dc machine schematic representation
15. Brushless dc machine
16. Switched-reluctance motor
17. Steady-state phasor diagrams of an
induction machine
18. Space vectors in an induction motor under pulsed loads
19. Transient stability of a synchronous machine against an infinite bus
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