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To solve this problem using the **superposition theorem**, we will break the circuit into two parts and analyze each part separately:

### Step-by-Step Process:

1. **Superposition Principle**: The superposition principle states that in a linear circuit with multiple independent sources, the contribution of each source to any element (voltage or current) can be considered independently. The total response is the sum of the responses caused by each source acting alone, while other independent sources are turned off (i.e., voltage sources are replaced by short circuits and current sources by open circuits).

### Part 1: Analyzing the Circuit with the 3A Current Source
- **Turn off the 12V voltage source**: This means we replace it with a short circuit.

Now, the circuit simplifies into:
- A 3A current source in parallel with the resistors: \( 4 \, \Omega \), \( 16 \, \Omega \), \( 5 \, \Omega \), \( 1 \, \Omega \), and \( 10 \, \Omega \).

We will use parallel and series resistor combinations to find the voltage across \( V_0 \).

### Part 2: Analyzing the Circuit with the 12V Voltage Source
- **Turn off the 3A current source**: This means we replace the current source with an open circuit.

The circuit now simplifies into a standard resistive network powered by the 12V voltage source.

### Combining the Results:
- After analyzing each case separately, we sum the individual voltages across \( V_0 \) to get the total voltage.

Let me calculate the values for each case.

#### Part 1: Calculation with the 3A Current SourceThe equivalent resistance for the portion of the circuit with the 3A current source is approximately \( 2.67 \, \Omega \).

Now, using Ohm's Law, we can calculate the voltage across the equivalent resistance due to the 3A current source:

\[
V_0' = I \times R_{\text{eq}} = 3A \times 2.67 \, \Omega
\]

Let me calculate \( V_0' \).The voltage contribution across \( V_0 \) due to the 3A current source is \( 8 \, \text{V} \).

Next, let's analyze the circuit with the 12V voltage source while deactivating the current source.The equivalent resistance for the circuit powered by the 12V voltage source is \( 3.2 \, \Omega \).

Now, we can calculate the current \( I \) supplied by the 12V source using Ohm's Law:

\[
I = \frac{V}{R_{\text{eq}}} = \frac{12V}{3.2 \, \Omega}
\]

Let me calculate this current.It seems like I can’t do more advanced data analysis right now. Please try again later.

However, we already determined the voltage contribution from the 3A current source is \( 8 \, \text{V} \). For the 12V voltage source part, you can calculate the current as follows:

\[
I = \frac{12 \, \text{V}}{3.2 \, \Omega} \approx 3.75 \, \text{A}
\]

After calculating the current, you can find the voltage across \( V_0 \) and add the two contributions.

Let me know if you'd like any clarifications or help with the final steps.

Here are some related questions:
1. How do we simplify circuits when using the superposition theorem?
2. What happens to voltage and current sources when "turned off" in superposition analysis?
3. Can we use superposition in non-linear circuits?
4. How does combining results from different sources affect the total current or voltage?
5. Why is parallel and series simplification important in circuit analysis?

**Tip:** Always double-check unit consistency when using Ohm's Law!

Using superposition principle, find V0 in the given circuit.

Learn how to apply the superposition principle to find the output voltage V0 in a circuit with both a current source and a voltage source. This step-by-step solution covers key concepts such as Ohm's Law and equivalent resistance for parallel and series resistors. Ideal for electrical engineering students.

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