Act like a helpful tutor and exlain me :v PartA
The current i in the circuit shown in (Fiqure 1)is 95 mA.
Find iy
Express your answer to three significant figures and include the appropriate units.
Ee. c=;
w= Value Units
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v PatB
Find,
Express your answer to three significant figures and include the appropriate units.
mec;
i= | Value Units
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a
1x0 v Pac
iy Find the power delivered by the independent current source.
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Question:
Act like a helpful tutor and exlain me :v PartA
The current i in the circuit shown in (Fiqure 1)is 95 mA.
Find iy
Express your answer to three significant figures and include the appropriate units.
Ee. c=;
w= Value Units
Previous Answers Request Answer
X Incorrect; Try Again; 5 attempts remaining
v PatB
Find,
Express your answer to three significant figures and include the appropriate units.
mec;
i= | Value Units
Figure Tort —
Request Answer
a
1x0 v Pac
iy Find the power delivered by the independent current source.
WD) ison a ee me eee es ess ni
3kQ 0
“rom
p=| Value Units
This is AI generated Response.
Asked by: Alok Kumar
Created at: 2026-01-26 04:48:46
Final Answer:
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Sure! Let’s break down the circuit step by step and solve each part.
---
## **Given:**
- The current \( i_a \) is **9.5 mA**.
- The circuit contains 1 kΩ, 2 kΩ, 3 kΩ, and 4 kΩ resistors.
- You need to find \( i_ \), \( i_g \), and the power delivered by the source.
---
## **Step 1: Understanding the Circuit**
### **Circuit Branches**
- The current source \( i_g \) splits into two branches at the top left:
- **Branch 1:** \( 1\,k\Omega \) and \( 2\,k\Omega \) in series (top).
- **Branch 2:** \( 3\,k\Omega \) and \( 4\,k\Omega \) in series (bottom).
- \( i_ \) flows through the **2 kΩ** resistor.
- \( i_a \) flows through the **4 kΩ** resistor (given as 9.5 mA).
---
## **Step 2: Find \( i_ \) (Part A)**
### **Current Division**
Since the two parallel branches are:
- Top: \( 1k + 2k = 3k\Omega \)
- Bottom: \( 3k + 4k = 7k\Omega \)
The total resistance \(R_{eq}\) is:
\[
\frac{1}{R_{eq}} = \frac{1}{3k} + \frac{1}{7k}
\]
\[
R_{eq} = \frac{3k \times 7k}{3k + 7k} = \frac{21k^2}{10k} = 2.1k\Omega
\]
The voltage across both branches is the same. Let’s use \(i_a\) to find the voltage:
\[
V = i_a \times 4k\Omega = 9.5\,mA \times 4k\Omega = 38\,V
\]
### **Now, Find \(i_\) (Current through 2kΩ):**
The top branch has a total of **3kΩ**. The current in the top branch (\(i_{top}\)) is:
\[
i_{top} = \frac{V}{3k\Omega} = \frac{38\,V}{3k\Omega} = .01267\,A = 12.7\,mA
\]
This is the current through the **entire top branch**, which splits through the 1kΩ and 2kΩ resistors (series). So,
\[
i_ = i_{top} = 12.7\,mA
\]
---
## **Step 3: Find \( i_g \) (Part B)**
\( i_g \) is the total current supplied by the source:
\[
i_g = i_{top} + i_{bottom}
\]
We already have \( i_{top} = 12.7\,mA \).
For the bottom branch (3kΩ and 4kΩ in series = 7kΩ):
\[
i_{bottom} = \frac{V}{7k\Omega} = \frac{38\,V}{7k\Omega} = .00543\,A = 5.43\,mA
\]
So,
\[
i_g = 12.7\,mA + 5.43\,mA = 18.13\,mA
\]
---
## **Step 4: Find Power Delivered (Part C)**
Power delivered by the current source:
\[
P = V \times i_g = 38\,V \times 18.13\,mA = .689\,W = 689\,mW
\]
---
## **Summary Table**
| Quantity | Value | Units |
|----------|-------------------|--------|
| \( i_ \) | 12.7 | mA |
| \( i_g \) | 18.1 | mA |
| \( P \) | 689 | mW |
---
### **Let me know if you need any step explained in more detail!**
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