(1) The system is in steady state. The phasor diagram shows the voltages V₁ and V₁ (but you are not told which one is which). The current source is a sine wave with w = 1 rad/s. (s)-5√√2√ 2.5A (a) Find v₁ (3 s), i.e., v; at time t = 3π 4 (b) What is the value of A? (c) What is the value of capacitor Ca? is A sin(wt + 0) + Vi seconds. 1 H ΖΩ Ca Vb + Va Vi 3π A Ca C = 1/2 F and C = 3/2 F Im 5j I 5 Re
(1) The system is in steady state. The phasor diagram shows the voltages V₁ and V₁ (but you are not told which one is which). The current source is a sine wave with w = 1 rad/s. (s)-5√√2√ 2.5A (a) Find v₁ (3 s), i.e., v; at time t = 3π 4 (b) What is the value of A? (c) What is the value of capacitor Ca? is A sin(wt + 0) + Vi seconds. 1 H ΖΩ Ca Vb + Va Vi 3π A Ca C = 1/2 F and C = 3/2 F Im 5j I 5 Re
Introductory Circuit Analysis (13th Edition)
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ISBN:9780133923605
Author:Robert L. Boylestad
Publisher:Robert L. Boylestad
Chapter1: Introduction
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**Educational Content: Steady State System Analysis**
**(1)** The system is in steady state. The phasor diagram represents the voltages \( V_a \) and \( V_b \). The identity of the voltages is not specified. The current source produces a sine wave with \(\omega = 1 \, \text{rad/s}\).
- **(a)** Determine \( v_i \left( \frac{3\pi}{4} \, \text{s} \right) \), i.e., \( v_i \) at time \( t = \frac{3\pi}{4} \) seconds.
\[
v_i \left( \frac{3\pi}{4} \, \text{s} \right) = -5\sqrt{2}
\]
- **(b)** Identify the value of \( A \).
\[
A = 2.5\, \text{A}
\]
- **(c)** Determine the value of capacitor \( C_a \).
\[
C = \frac{1}{2} \, \text{F and} \, C = \frac{3}{2} \, \text{F}
\]
**Circuit Diagram Explanation:**
- The diagram includes an inductor and a capacitor connected in series with a resistor (2 Ω).
- The inductor value is 1 H.
- The voltage across the components are labeled \( v_a \) and \( v_b \).
- The current source is represented as \( i_s = A \cdot \sin(\omega t + \theta) \).
**Phasor Diagram Explanation:**
- The phasor diagram includes a real and imaginary axis, represented as \( \text{Re} \) and \( \text{Im} \).
- A phasor with a magnitude of 5 is shown along the real axis.
- Another phasor with a magnitude of \( 5j \) (representing the imaginary component) is indicated on the imaginary axis.
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Transcribed Image Text:---
**Educational Content: Steady State System Analysis**
**(1)** The system is in steady state. The phasor diagram represents the voltages \( V_a \) and \( V_b \). The identity of the voltages is not specified. The current source produces a sine wave with \(\omega = 1 \, \text{rad/s}\).
- **(a)** Determine \( v_i \left( \frac{3\pi}{4} \, \text{s} \right) \), i.e., \( v_i \) at time \( t = \frac{3\pi}{4} \) seconds.
\[
v_i \left( \frac{3\pi}{4} \, \text{s} \right) = -5\sqrt{2}
\]
- **(b)** Identify the value of \( A \).
\[
A = 2.5\, \text{A}
\]
- **(c)** Determine the value of capacitor \( C_a \).
\[
C = \frac{1}{2} \, \text{F and} \, C = \frac{3}{2} \, \text{F}
\]
**Circuit Diagram Explanation:**
- The diagram includes an inductor and a capacitor connected in series with a resistor (2 Ω).
- The inductor value is 1 H.
- The voltage across the components are labeled \( v_a \) and \( v_b \).
- The current source is represented as \( i_s = A \cdot \sin(\omega t + \theta) \).
**Phasor Diagram Explanation:**
- The phasor diagram includes a real and imaginary axis, represented as \( \text{Re} \) and \( \text{Im} \).
- A phasor with a magnitude of 5 is shown along the real axis.
- Another phasor with a magnitude of \( 5j \) (representing the imaginary component) is indicated on the imaginary axis.
---
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