C
in series RC circuit,
227
Ceramic disc capacitors,
180
Chassis wiring color code,
515
Circuits.
See Parallel circuits; Resistors; Series circuit
cross-sectional area calculations,
265
physical properties that determine,
264–265
internal resistance of,
267
North–South magnetic field of,
262–263
Coordinates of the point,
398
Coupling control, of oscilloscope,
86–87
universal time constant chart for solving,
348–349
E
Electromagnetic induction,
8–10
Electromagnetic properties
Faraday’s discoveries regarding,
259–260
Oersted’s discoveries regarding,
260
Electron current flow,
259
Electron gun, of oscilloscope,
69–70
I
Pythagorean theorem application to,
224–225
RC, in parallel RL circuit,
319
parallel-connected inductors with,
273–274
series-connected inductors with,
273
frequency change effects on,
285–287
inductance change effects on,
285–287
schematic symbol of,
259f
mutual inductance with,
274
universal time constant chart for solving,
348–349
P
alternative solution method,
244–245
power phasor relationships,
246–247
alternative solution method,
323–324
circuit phase diagram,
381f
current phasor comparisons and diagram,
382f,
384f
Parallel resistive AC circuit,
154–155
from peak-to-peak amplitude,
39,
508
from root-mean-square amplitude,
38,
508
to peak amplitude,
39,
508
from root-mean-square amplitude,
38,
508
to root-mean-square amplitude,
39,
508
converting to frequency of waveform,
16
in parallel RL circuit,
320,
322
tangent function for solving,
231–233
conventional specification,
123
amplitude
versus phase,
123
phasor notation for representing.
See Phasor notation
circuit analysis and,
403
real and imaginary axis,
400
square roots of negative numbers,
399–400
j-operator application to,
404
circuit analysis and,
403
Polar form, complex numbers in
in parallel RC circuit,
246
in parallel RLC circuits,
383
in parallel RL circuit,
324
in series RLC circuits,
377
in series RL circuit,
316
in inductive circuits,
290
in parallel capacitive circuits,
200–201
in parallel inductive circuits,
291
in parallel RC circuit,
246
in parallel RL circuit,
324
in series RC circuit,
235
in series RL circuit,
316
in parallel RC circuit,
245
in parallel RL circuit,
324
in series RC circuit,
235
in series RL circuit,
316
in series capacitive circuits,
200
in series inductive circuits,
290–291
Pure reactance polar form,
440
Pure resistance polar form,
440
R
alternative solution method,
244–245
power phasor relationships,
246–247
alternative solution method,
233–234
capacitive reactance,
227
Kirchhoff’s voltage law and,
351
in series RC circuit,
227
frequency change effects on,
285–287
inductance change effects on,
285–287
Rectangular form, complex numbers in
Resistance vector addition,
222–223
voltage phase relationships,
458
how to find when theta and hypotenuse are given,
50
relationship between,
39–40
alternative solution method,
323–324
alternative solution method,
314–315
circuit phase diagram,
381f
current phasor comparisons and diagram,
382f,
384f
voltage phasor comparisons,
372
universal time constant chart application,
357–360
Root-mean-square amplitude
from peak-to-peak amplitude,
39,
508
peak-to-peak amplitude from RMS,
38,
39f,
508
S
alternative solution method,
233–234
capacitive reactance,
227
alternative solution method,
314–315
mutual inductance with,
274
Series-parallel resistive AC circuit
Series resistive AC circuit,
151–153
voltage phase relationships,
458
non-sinusoidal waveform and,
114–115
calculator for extracting,
503
T
phase angle solutions using,
231–233
finding sides of triangle when given,
50
Kirchhoff’s voltage law and,
351
universal time constant chart.
See Universal time constant chart
primary-to-secondary current relationship,
279
schematic representation of,
275f
turns ratio versus voltage,
276–278
right-triangle side and angle relationships,
39–40