Show work for full credit. Include MultiSIM screenshots where indicated.
- Consider the parallel inductive reactive circuit below. Calculate the following: (Express all answers in magnitude/phase angle form)
- Zeq
- IT
- XL2
- XL1
- IR1
- IR2
- IL1
- IL2
Parallel Inductive Circuit:

- Consider the series RC circuit below:
- Assume C1 is completely discharged with S1 in the position shown. If S1 is moved to the top position, how long will it take for the capacitor voltage to reach
- 3V
- 6V
- 15V
- 20V
- Assume that C is completely discharged with S1 in the position shown. If S1 is moved to the top position, how much is the resistor voltage at the following time intervals?
- t = 0 s
- t = 4.5 ms
- t = 10 ms
- t = 15 ms
- t = 25 ms
Series RC Circuit:

- Analyze the RLC circuit below to determine the following (include both polar and complex forms where applicable):
- Zeq
- IT
- IR1
- IL1
- Real Power (Watts)
- Reactive Power (VARs)
- Apparent Power (VAs)
- Power Factor
- Construct the circuit in MultiSIM and run a Single Frequency Analysis to confirm your calculations for the phasor values in part 3. Capture a screenshot of the analysis for both Magnitude/Phase (polar) and Real/Imaginary (complex).
- Measure the real power of the circuit and the power factor using a watt meter. Capture a screenshot of the watt meter readings.
