(k) For sinusoidal function over one period, a root-mean-square value is the half of peak value: For v(t) = Vm sin(wt + 0), Urms = V (1) For a phasor notation, v = VZ0°, V is the rms value of waveform. (m) (n) - - The total impedance will be frequency dependent. For parallel ac networks, the total impedance is the sum of reciprocal of impedance of each components: Zeq = ½½ + ½⁄2 + ··· + ½ (o) The ideal voltage source can be converted into the current source. -

Introductory Circuit Analysis (13th Edition)
13th Edition
ISBN:9780133923605
Author:Robert L. Boylestad
Publisher:Robert L. Boylestad
Chapter1: Introduction
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(k) For sinusoidal function over one period, a root-mean-square value is the half of
peak value: For v(t) = Vm sin(wt + 0), Urms = V
(1) For a phasor notation, v = VZ0°, V is the rms value of waveform.
(m)
(n)
-
-
The total impedance will be frequency dependent.
For parallel ac networks, the total impedance is the sum of reciprocal of
impedance of each components: Zeq = ½½ + ½⁄2 + ··· + ½
(o) The ideal voltage source can be converted into the current source.
-
Transcribed Image Text:(k) For sinusoidal function over one period, a root-mean-square value is the half of peak value: For v(t) = Vm sin(wt + 0), Urms = V (1) For a phasor notation, v = VZ0°, V is the rms value of waveform. (m) (n) - - The total impedance will be frequency dependent. For parallel ac networks, the total impedance is the sum of reciprocal of impedance of each components: Zeq = ½½ + ½⁄2 + ··· + ½ (o) The ideal voltage source can be converted into the current source. -
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