Analyze the circuit. Assume the Capacitors are uncharged before the Suntch is closed, AtFme 0, the switch State the equatun and ruph sherch the functron out constanto showing the valuer Done veltage 2The cufrend and woltage profile of he battery 3) determine the final eneryy She 4 mico Fcapacitor. on the capacitor

icon
Related questions
Question
**Circuit Analysis Educational Exercise**

*Task Overview:*

Analyze the circuit. Assume the capacitors are uncharged before the switch is closed. The tasks are:

1) State the equation and graphically sketch the function showing the key values:
   - The voltage on the 4-microfarad capacitor.

2) Find:
   - The current and voltage profile of the battery.

3) Determine the final energy stored in the 4-microfarad capacitor.

*Circuit Diagram:*

- The circuit consists of two capacitors (4 µF and 6 µF) in parallel, connected to a 120 V battery through a switch.
- The capacitors are each drawn as two parallel lines, with the 4 µF capacitor at the top and the 6 µF capacitor below it.
- A resistor (6 Ω) is also in series with the switch and the battery.

**Notes for Students:**

- When analyzing circuits like this one, remember to apply fundamental principles such as Kirchhoff's laws and the concepts of capacitance and energy storage.
- Pay attention to the initial conditions specified—capacitors are initially uncharged.
Transcribed Image Text:**Circuit Analysis Educational Exercise** *Task Overview:* Analyze the circuit. Assume the capacitors are uncharged before the switch is closed. The tasks are: 1) State the equation and graphically sketch the function showing the key values: - The voltage on the 4-microfarad capacitor. 2) Find: - The current and voltage profile of the battery. 3) Determine the final energy stored in the 4-microfarad capacitor. *Circuit Diagram:* - The circuit consists of two capacitors (4 µF and 6 µF) in parallel, connected to a 120 V battery through a switch. - The capacitors are each drawn as two parallel lines, with the 4 µF capacitor at the top and the 6 µF capacitor below it. - A resistor (6 Ω) is also in series with the switch and the battery. **Notes for Students:** - When analyzing circuits like this one, remember to apply fundamental principles such as Kirchhoff's laws and the concepts of capacitance and energy storage. - Pay attention to the initial conditions specified—capacitors are initially uncharged.
Expert Solution
Step 1

Solution:

Calculate the equivalent resistance and capacitance of the circuit. The resistors and the capacitors are connected in parallel. Therefore, the equivalent capacitance is, 

Ceq=4μF+6μF=10μF

Similarly, the equivalent resistance is can be obtained as the following:

1Req=14+16Req=125kΩ     =2.4 kΩ 

 

steps

Step by step

Solved in 6 steps

Blurred answer