Find R, in the network above for maximum power transfer and the maximum power, Pmaz, that can be transferred to the load. Take V = 7V, I = 4m A, R1 = 9kN, R2 = 8kN and R3 = 8kN R, = Pmaz = mW

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### Circuit Analysis for Maximum Power Transfer

#### Problem Statement
Find \( R_L \) in the network above for maximum power transfer and the maximum power, \( P_{\text{max}} \), that can be transferred to the load. Given values are:

- \( V_1 = 7V \)
- \( I_1 = 4mA \)
- \( R_1 = 9k\Omega \)
- \( R_2 = 8k\Omega \)
- \( R_3 = 8k\Omega \)

#### Diagram Description
The circuit diagram consists of:

- A voltage source \( V_1 \) connected in series with a resistor \( R_1 \).
- A parallel combination of \( R_2 \) and \( R_3 \) branches off from the connection between \( V_1 \) and \( R_1 \).
- Current \( I_1 \) flows through the initial branch.

#### Calculations

1. **Find \( R_L \) for Maximum Power Transfer**

   To achieve maximum power transfer, the load resistance \( R_L \) should be equal to the Thevenin equivalent resistance of the rest of the network.

   **Thevenin’s Equivalent Resistance:**
   \[
   R_{\text{Thevenin}} = \left( \frac{R_2 \times R_3}{R_2 + R_3} \right) + R_1
   \]

   **Calculation:**
   \[
   R_{\text{eq (parallel)}} = \frac{8k \Omega \times 8k \Omega}{8k \Omega + 8k \Omega} = 4k \Omega
   \]

   \[
   R_{\text{Thevenin}} = 4k \Omega + 9k \Omega = 13k \Omega
   \]

   Therefore, \( R_L = 13k\Omega \).

2. **Calculate Maximum Power \( P_{\text{max}} \) Transferable to the Load**

   \( P_{\text{max}} \) is given by:
   \[
   P_{\text{max}} = \frac{{V_{\text{Thevenin}}}^2}{4 \times R_{\text{Thevenin}}}
   \]

   assume \( V_{\text{Thevenin}} \approx V_1 \)
Transcribed Image Text:### Circuit Analysis for Maximum Power Transfer #### Problem Statement Find \( R_L \) in the network above for maximum power transfer and the maximum power, \( P_{\text{max}} \), that can be transferred to the load. Given values are: - \( V_1 = 7V \) - \( I_1 = 4mA \) - \( R_1 = 9k\Omega \) - \( R_2 = 8k\Omega \) - \( R_3 = 8k\Omega \) #### Diagram Description The circuit diagram consists of: - A voltage source \( V_1 \) connected in series with a resistor \( R_1 \). - A parallel combination of \( R_2 \) and \( R_3 \) branches off from the connection between \( V_1 \) and \( R_1 \). - Current \( I_1 \) flows through the initial branch. #### Calculations 1. **Find \( R_L \) for Maximum Power Transfer** To achieve maximum power transfer, the load resistance \( R_L \) should be equal to the Thevenin equivalent resistance of the rest of the network. **Thevenin’s Equivalent Resistance:** \[ R_{\text{Thevenin}} = \left( \frac{R_2 \times R_3}{R_2 + R_3} \right) + R_1 \] **Calculation:** \[ R_{\text{eq (parallel)}} = \frac{8k \Omega \times 8k \Omega}{8k \Omega + 8k \Omega} = 4k \Omega \] \[ R_{\text{Thevenin}} = 4k \Omega + 9k \Omega = 13k \Omega \] Therefore, \( R_L = 13k\Omega \). 2. **Calculate Maximum Power \( P_{\text{max}} \) Transferable to the Load** \( P_{\text{max}} \) is given by: \[ P_{\text{max}} = \frac{{V_{\text{Thevenin}}}^2}{4 \times R_{\text{Thevenin}}} \] assume \( V_{\text{Thevenin}} \approx V_1 \)
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