For the above circuit, assume the following: vin (t) = 15cos(2, 500t +45°)V, R₁ = R₂ = 1kN, C₁ = 2µF, L₁ = 0.5H: A) Find the impedance Zc, in (X+jY) form and in units of kn. B) Find the impedance ZR₁ in (X + jY) form and in units of kn. C) Find the impedance ZR₂ in (X+jY) form and in units of kn. D) Find the impedance ZL, in (X+jY) form and in units of kN. E) Find the Thevenin Impedance Zth in (X+jY) form and in units of kn. F) Find the Thevenin Voltage Vth in Avth 20th form and in units of [V]Z[°].
For the above circuit, assume the following: vin (t) = 15cos(2, 500t +45°)V, R₁ = R₂ = 1kN, C₁ = 2µF, L₁ = 0.5H: A) Find the impedance Zc, in (X+jY) form and in units of kn. B) Find the impedance ZR₁ in (X + jY) form and in units of kn. C) Find the impedance ZR₂ in (X+jY) form and in units of kn. D) Find the impedance ZL, in (X+jY) form and in units of kN. E) Find the Thevenin Impedance Zth in (X+jY) form and in units of kn. F) Find the Thevenin Voltage Vth in Avth 20th form and in units of [V]Z[°].
Introductory Circuit Analysis (13th Edition)
13th Edition
ISBN:9780133923605
Author:Robert L. Boylestad
Publisher:Robert L. Boylestad
Chapter1: Introduction
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
Transcribed Image Text:In the given electrical circuit, we see a sinusoidal voltage source \( v_{in}(t) \) connected in series with a capacitor \( C_1 \), two resistors \( R_1 \) and \( R_2 \), and an inductor \( L_1 \). The output voltage across points \( a \) and \( b \) is designated as \( v_{th}(t) \).
**Assumptions for the Circuit:**
- Input voltage: \( v_{in}(t) = 15 \cos(2500t + 45^\circ) \, V \)
- Resistor values: \( R_1 = R_2 = 1 \, k\Omega \)
- Capacitor value: \( C_1 = 2 \, \mu F \)
- Inductor value: \( L_1 = 0.5 \, H \)
**Tasks:**
A) Calculate the impedance \( Z_{C1} \) in \( (X + jY) \) form, with units in \( k\Omega \).
B) Calculate the impedance \( Z_{R1} \) in \( (X + jY) \) form, with units in \( k\Omega \).
C) Calculate the impedance \( Z_{R2} \) in \( (X + jY) \) form, with units in \( k\Omega \).
D) Calculate the impedance \( Z_{L1} \) in \( (X + jY) \) form, with units in \( k\Omega \).
E) Determine the Thevenin Impedance \( Z_{th} \) in \( (X + jY) \) form, with units in \( k\Omega \).
F) Determine the Thevenin Voltage \( V_{th} \) in \( A_{Vth} \angle \theta_{Vth} \) form, in units of \( V \angle^\circ \).
### Explanation of Circuit Components:
- **Capacitor \( C_1 \):** Stores electrical energy in an electric field and affects the phase of current in the circuit.
- **Resistors \( R_1 \) and \( R_2 \):** Provide resistance and dissipate energy as heat.
- **Inductor \( L_1 \):** Stores energy in a magnetic field and affects the phase of current, contributing to reactive power.
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