figure 1. Radio waves from a nearby radio station are the external AC source As- sume Vac(t) = Vo cos(Nt+) where R, L, V₁, №, & are arbitrary positive constants. 2 L R eeee Figure 1: RLC circuit for the FM receiver in parallel with an external source. Use the relationship between voltage and current for each circuit's element and the identity I = Q to: (a) Find the current across the resistor as a function of time: IR(t). (b) Find the current across the capacitor as a function of time: Ic(t). (c) Find the current across the inductor as a function of time: IL(t).

Introductory Circuit Analysis (13th Edition)
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figure 1. Radio waves from a nearby radio station are the external AC source 1 As-
sume Vac(t) = V₁ cos(Nt+) where R, L, Vo, N, & are arbitrary positive constants. 2
R
0000
0000
Figure 1: RLC circuit for the FM receiver in parallel with an external source.
Use the relationship between voltage and current for each circuit's element and the
identity I
Q to:
=
(a) Find the current across the resistor as a function of time: IR(t).
(b) Find the current across the capacitor as a function of time: Ic(t).
(c) Find the current across the inductor as a function of time: IL(t).
(d) Let's denote the total current in the circuit by IȚ(t) A cos(Nt+)+B sin(Nt+
6). Find A, B. Hint: the result shows that Ic(t) is delayed with respect to Ir(t)
one quarter of a cycle, while IL(t) is advanced with respect to Ir(t) one quarter
of a cycle. This fact motivates the concept of electrical impedance in EE.
Transcribed Image Text:figure 1. Radio waves from a nearby radio station are the external AC source 1 As- sume Vac(t) = V₁ cos(Nt+) where R, L, Vo, N, & are arbitrary positive constants. 2 R 0000 0000 Figure 1: RLC circuit for the FM receiver in parallel with an external source. Use the relationship between voltage and current for each circuit's element and the identity I Q to: = (a) Find the current across the resistor as a function of time: IR(t). (b) Find the current across the capacitor as a function of time: Ic(t). (c) Find the current across the inductor as a function of time: IL(t). (d) Let's denote the total current in the circuit by IȚ(t) A cos(Nt+)+B sin(Nt+ 6). Find A, B. Hint: the result shows that Ic(t) is delayed with respect to Ir(t) one quarter of a cycle, while IL(t) is advanced with respect to Ir(t) one quarter of a cycle. This fact motivates the concept of electrical impedance in EE.
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