chapter 1.
1.1 determining current given charge
1.2 power calculations
1.3 energy calculation
1.4 resistance calculation
1.5 determining resistance for given power and voltage ratings
1.6 circuit analysis using arbitrary references
1.7 using kvl, kcl, and ohm's law to solve a circuit
chapter 2
2.1 combining resistances in series and parallel
2.2 circuit analysis using series/parallel
equivalents
2.3 application of the vorage-division
principle
2.4 applying the current- and
voltage-division principles
2.5 application of the current-division
principle
2.6 node-voltage analysis
2.7 node-voltage analysis
.2.8 node-voltage analysis
2.9 node-voltage analysis with a
dependent source
2.10 node-voltage analysis with a
dependent source
2.11 mesh-current analysis
2.12 mesh-current analysis
2.13 mesh-current analysis with controlled
sources
2.14 determining the thevenin equivalent circuit
2.15 zeroing sources to find th6venin resistance
2.16 th6venin equivalent of a circuit with a dependent source
2.17 norton equivalent circuit
2.18 using source transformations
2.19 determining maximum power transfer
2,20 circuit analysis using superposition
2.21 using a wheatstone bridge to measure resistance
chapter 3
3.1 determining current for a capacitance given voltage
3.2 determining voltage for a capacitance given current
3.3 current, power, and energy for a capacitance
3.4 calculating capacitance given physical parameters
3.5 what happened to the missing energy?
3.6 voltage, power, and energy for an inductance
3.7 inductor current with constant applied voltage
chapter 4
4.1 steady-state dc analysis
4.2 rl transient analysis
4.3 rl transient analysis
4.4 transient analysis of an rc circuit with a sinusoidal source
4.5 analysis of a second-order circuit with a dc source
chapter 5
5.1 power delivered to a resistance by a sinusoidal source
5.2 using phasors to add sinusoids
5.3 steady-state ac analysis of a series circuit
5.4 series and parallel combinations of complex impedances
5.5 steady-state ac node-voltage analysis
5.6 ac power calculations
5.7 using power triangles
5.8 power-factor correction
5.9 thevenin and norton equivalents
5.10 maximum power transfer
5.11 analysis of a wye-wye system
5.12 analysis of a balanced delta-delta system
chapter 6
6.1 using the transfer function to determine the output
6.2 using the transfer function with several input components
6.3 calculation of rc lowpass output
6.4 determination of the break frequency for a highpass filter
6.5 computer-generated bode plot
6.6 series resonant circuit
6.7 parallel resonant circuit
6.8 filter design
6.9 step response of a first-order digital lowpass filter
chapter 7
7.1 converting a decimal integer to binary
7.2 converting a decimal fraction to binary
7.3 converting decimal values to binary
7.4 adding binary numbers
7.5 converting octal and hexadecimal numbers to binary
7.6 converting binary numbers to octal or hexadecimal
7.7 subtraction using two's-complement arithmetic
7.8 using a truth table to prove a boolean expression
7.9 applying de morgan's laws
7.10 combinatorial logic circuit design
chapter 8
8.1 an assembly-language program
8.2 absolute value assembly program
8.3 manual conversion of source code to machine code..
8.4 subroutine source code
chapter 9
9.1 sensor loading
9.2 specifications for a computer-based measurement system
chapter 10
10.1 load-line analysis
10.2 load-line analysis
10.3 load-line analysis of a zener-diode voltage regulator
10.4 analysis of a zener-diode regulator with a load
10.5 analysis by assumed diode states
10.6 piecewise-linear model for a zener diode
10.7 analysis using a piecewise-linear model
chapter 11
11.1 calculating amplifier performance
11.2 calculating performance of cascaded amplifiers
11.3 simplified model for an amplifier cascade
11.4 amplifier efficiency
11.5 determining the current-amplifier model from the voltage-amplifier model
11.6 determining the transconductance-amplifier model
11.7 determining the tr ansresistance-amplifier model
11.8 determining complex gain
11.9 amplitude distortion
11.10 phase distortion
11.11 application of rise-time-bandwidth relationship
11.12 determination of the minimum cmrr specification
11.13 calculation of worst-case dc output voltage
chapter 12
12.1 plotting the characteristics of an nmos transistor
12.2 determination of q point for the fixedplus self-bias circuit
12.3 determination of gm and rd from the characteristic curves
12.4 gain and impedance calculations for a common-source amplifier
12.5 gain and impedance calculations for a source follower
chapter 13
13.1 determining 18 from the characteristic curves
13.2 load-line analysis of a bjt amplifier
13.3 determining the operating region of a bjt
13.4 analysis of the fixed base bias circuit
13.5 analysis of the fixed base bias circuit
13.6 analysis of a bjt bias circuit
13.7 analysis of the four-resistor bias circuit
13.8 common-emitter amplifier
13.9 emitter-follower performance
chapter 14
14.1 analysis of an inverting amplifier
14.2 design of a noninverting amplifier
14.3 amplifier design
14.4 summing amplifier design
14.5 open-loop and closed-loop bode plots
14.6 fuil-power bandwidth
14.7 determining worst-case dc output
14.8 lowpass active filter design
chapter 15
15.1 magnetic field around a long straight wire
15.2 flux density in a toroidal core
15.3 flux and flux linkages for a toroidal core
15.4 the toroidal coil as a magnetic circuit
15.5 a magnetic circuit with an air gap
15.6 a magnetic circuit with reluctances in series and parallel
15.7 calculation of inductance
15.8 calculation of inductance and mutual inductance
15.9 determination of required turns ratio
15.10 analysis of a circuit containing an ideal transformer
15.11 using impedance transformations
15.12 reflecting the source to the secondary
15.13 regulation and efficiency calculations
chapter 16
16.1 motor performance calculations
16.2 idealized linear machine
16.3 dc machine performance calculations
16.4 shunt-connected dc motor
16.5 series-connected dc motor
16.6 separately excited dc generator
chapter 17
17.1 induction-motor performance
17.2 starting current and torque
17.3 induction-motor performance
17.4 synchronous-motor performance
17.5 power-factor control appendix a
a.1 complex arithmetic in rectangular form
a.2 polar-to-rectangnlar conversion
a.3 rectangular-to-polar conversion
a.4 exponential form of a complex number
a.5 complex arithmetic in polar form...
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