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What is the time constant for a 7.50 mF capacitor in series with a 3.00 Ω resistor?

 

Booster class
Electricity and Magnetism
Skill
Understanding RLC circuit
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Ankit Lal
Ankit LalLv10
2 Jan 2021
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Related textbook solutions

Physics: Principles with Applications
7th Edition, 2013
Giancoli
ISBN: 9780321625922

Related questions

A 2.00-k Ω and a 7.50-μF capacitor can be connected in series or parallel, as can a 25.0-μF and a 100 − k Ω resistor. Calculate the four RC time constants possible from connecting the resulting capacitance and resistance in series?

Consider the circuit shown in Figure P18.10.
(a) Calculate the equivalent resistance of the 10.0-Ω and 5.00-Ω resistors connected in parallel.
(b) Using the result of part (a), calculate the combined resistance of the 10.0-Ω, 5.00-Ω, and 4.00-Ω resistors.
(c) Calculate the equivalent resistance of the combined resistance found in part (b) and the parallel 3.00-Ω resistor.
(d) Combine the equivalent resistance found in part (c) with the 2.00-Ω resistor.
(e) Calculate the total current in the circuit.
(f) What is the voltage drop across the 2.00-Ω resistor?
(g) Subtracting the result of part (f) from the battery voltage, find the voltage across the 3.00-Ω resistor.
(h) Calculate the current in the 3.00-Ω resistor.
 
Figure P18.10
 

 

Consider the circuit shown in Figure P18.10. (a) Calculate the equivalent resistance of the 10.0-Ω and 5.00-Ω resistors connected in parallel. (b) Using the result of part (a), calculate the combined resistance of the 10.0-Ω, 5.00-Ω, and 4.00-Ω resistors. (c) Calculate the equivalent resistance of the combined resistance found in part (b) and the parallel 3.00-Ω resistor. (d) Combine the equivalent resistance found in part (c) with the 2.00-Ω resistor. (e) Calculate the total current in the circuit. (f) What is the voltage drop across the 2.00-Ω resistor? (g) Subtracting the result of part (f) from the battery voltage, find the voltage across the 3.00-Ω resistor. (h) Calculate the current in the 3.00-Ω resistor.

Chapter 18, Problem 10P, Consider the circuit shown in Figure P18.10. (a) Calculate the equivalent resistance of the 10.0-

Figure P18.10

 

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