A 2.40×103 Ω resistor and a capacitor are connected in series and then a 2.00 V potential difference is suddenly applied across them. The potential difference across the capacitor rises to 1.300 V in 4.70 μs. Calculate the time constant of the circuit. Tries 0/10 Find the capacitance of the capacitor.
A 2.40×103 Ω resistor and a capacitor are connected in series and then a 2.00 V...
A(n) 14.0 kΩ resistor and a capacitor are connected in series and then a(n) 17.0 V potential difference is suddenly applied across them. The potential difference across the capacitor rises to 11.0 V in 1.35 μs. (a) Calculate the time constant of the circuit. ???μs (b) Find the capacitance of the capacitor. ???pF
A 11.4 kΩ resistor and a capacitor are connected in series and then a 12.0 V potential difference is suddenly applied across them. The potential difference across the capacitor rises to 4.82 V in 1.48 µs. (a) Calculate the time constant of the circuit. (b) Find the capacitance of the capacitor. A 11.4 k2 resistor and a capacitor are connected in series and then a 12.0 V potential difference is suddenly applied across them. The potential difference across the capacitor...
A 21.1 kΩ resistor and a capacitor are connected in series and then a 12.0 V potential difference is suddenly applied across them. The potential difference across the capacitor rises to 4.48 V in 1.32 µs. (a) Calculate the time constant of the circuit. (b) Find the capacitance of the capacitor.
a) A 19.1 kΩ resistor and a capacitor are connected in series and then a 12.0 V potential difference is suddenly applied across them. The potential difference across the capacitor rises to 3.51 V in 1.49 µs. (i) Calculate the time constant of the circuit. (ii) Find the capacitance of the capacitor. b) The potential difference between the plates of a leaky (meaning that charge leaks from one plate to the other) 2.2 µF capacitor drops to one-fourth its initial...
A 13.0 kO resistor and a capacitor are connected in series and then a 28.0 V potential difference is suddenly applied across them. The potential difference across the capacitor rises to 4.0 Vin 2.80 us. Calculate the time constant of the circuit. (Your result must be in units of us's. Include 2 digit after the decimal point and maximum of 5% of error is accepted in your answer.)
An uncharged capacitor and a resistor are connected in series to a source of EMF. If ε = 6.48 V, C = 24.6 μF, and R = 125 Ω, calculate the time constant τ of the circuit. 3.08 ms You are correct. Previous Tries Calculate the maximum charge on the capacitor. Incorrect. Tries 1/20 Previous Tries Calculate the charge on the capacitor after one time constant.
The discharge curve for a capacitor connected in series with a resistor is shown below, If the capacitance of the capacitor is 22.50 farads, what is the resistance of the resistor? Please calculate the time constant for this circuit. After two time constants what is the potential across capacitor? Please calculate the amount of charge on the capacitor 25.00 minutes after discharge has started, Once capacitor is fully discharged, the charging process begun. How much time, after charging begins, is...
A resistor and capacitor are connected in series to a power supply of 50 Volts. The resistor has a value of 30000 ohms and the Capacitor is initially uncharged. After a time of 16.0 seconds, the capacitor is charged 72% fully charged. a) What is the capacitance of capacitor in this circuit? b) What is the time constant of this system? c) What is the current through the resistor at t= 20.0 seconds? d) What is the potential difference across...
A 502.6 Ω resistor is connected in series with a capacitor. What must be the capacitance of the capacitor to produce a time constant of 2.26 s ?
A 503.7 Ω resistor is connected in series with a capacitor. What must be the capacitance of the capacitor to produce a time constant of 2.17 s?