3. Use Phasors analysis to calculate the following for this single phase, AC steady-state circuit: • a. Z1, Z2, and Z3 as complex impedances in Ohms b. The parallel combination Z2//Z3 c. Zs, the total impedance as seen by the voltage source
3. Use Phasors analysis to calculate the following for this single phase, AC steady-state circuit: • a. Z1, Z2, and Z3 as complex impedances in Ohms b. The parallel combination Z2//Z3 c. Zs, the total impedance as seen by the voltage source
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Q3
![### Problem Statement:
Use phasor analysis to calculate the following for this single-phase AC steady-state circuit:
a. \( Z_1, Z_2, \) and \( Z_3 \) as complex impedances in Ohms
b. The parallel combination \( Z2 // Z3 \)
c. \( Z_s, \) the total impedance as seen by the voltage source
d. \( V_a, \) the node voltage at \( a, \) by any method
e. \( P_4, \) the average power dissipated in the 4 Ohm resistor
### Circuit Description:
The circuit consists of the following components:
- **Voltage source:** \( 100 \cos(10t) \) volts
- **Impedance \( Z_1 \):** A series combination of a resistor (1 Ohm) and an inductor (0.9 H)
- **Impedance \( Z_2 \):** A capacitor (1/40 F)
- **Impedance \( Z_3 \):** A series combination of a resistor (4 Ohm) and an inductor (0.4 H)
The circuit is powered by an AC voltage source with a cosine waveform. The source current is \( I_s \), which enters the circuit through \( Z_1 \) and proceeds to the node labeled \( a \). The node voltage \( V_a \) is measured across the impedance \( Z_2 \) and \( Z_3 \), which are connected in parallel.
### Analysis Requirements:
1. **Complex Impedances Calculation:**
- Determine the complex impedance for each component using phasor analysis.
2. **Parallel Combination:**
- Calculate the equivalent impedance for \( Z_2 \) and \( Z_3 \).
3. **Total Impedance:**
- Find the total impedance \( Z_s \) as experienced by the voltage source.
4. **Node Voltage Calculation:**
- Calculate the node voltage \( V_a \) using any suitable analysis method.
5. **Average Power:**
- Determine the average power (\( P_4 \)) dissipated by the 4 Ohm resistor in \( Z_3 \).](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2Fdc9c7494-1a96-4ff8-a6c5-87955a5c8cb7%2Fd09a73a6-f512-4113-9d95-fa478add0aef%2Ffxibzdk_processed.png&w=3840&q=75)
Transcribed Image Text:### Problem Statement:
Use phasor analysis to calculate the following for this single-phase AC steady-state circuit:
a. \( Z_1, Z_2, \) and \( Z_3 \) as complex impedances in Ohms
b. The parallel combination \( Z2 // Z3 \)
c. \( Z_s, \) the total impedance as seen by the voltage source
d. \( V_a, \) the node voltage at \( a, \) by any method
e. \( P_4, \) the average power dissipated in the 4 Ohm resistor
### Circuit Description:
The circuit consists of the following components:
- **Voltage source:** \( 100 \cos(10t) \) volts
- **Impedance \( Z_1 \):** A series combination of a resistor (1 Ohm) and an inductor (0.9 H)
- **Impedance \( Z_2 \):** A capacitor (1/40 F)
- **Impedance \( Z_3 \):** A series combination of a resistor (4 Ohm) and an inductor (0.4 H)
The circuit is powered by an AC voltage source with a cosine waveform. The source current is \( I_s \), which enters the circuit through \( Z_1 \) and proceeds to the node labeled \( a \). The node voltage \( V_a \) is measured across the impedance \( Z_2 \) and \( Z_3 \), which are connected in parallel.
### Analysis Requirements:
1. **Complex Impedances Calculation:**
- Determine the complex impedance for each component using phasor analysis.
2. **Parallel Combination:**
- Calculate the equivalent impedance for \( Z_2 \) and \( Z_3 \).
3. **Total Impedance:**
- Find the total impedance \( Z_s \) as experienced by the voltage source.
4. **Node Voltage Calculation:**
- Calculate the node voltage \( V_a \) using any suitable analysis method.
5. **Average Power:**
- Determine the average power (\( P_4 \)) dissipated by the 4 Ohm resistor in \( Z_3 \).
Expert Solution
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Step 1
given that a circuit with resistances, capacitances and inductances with an AC source.
NOTE :
As per our company guidelines we are supposed to answer first 3 sub-parts only. kindly re-post other parts in the next question.
here we have to find the impedances in complex form.
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