The same as the time constant of a 2.7 microfarad capacitor and a 33 ohm resistor connected in series.
If a 10 microfarad capacitor is charged through a 10 ohm resistor, it will theoretically never reach full charge. Practically, however, it can be considered fully charged after 5 time constants. One time constant is farads times ohms, so the time constant for a 10 microfarad capacitor and a 10 ohm resistor is 100 microseconds. Full charge will be about 500 microseconds.
2*103*10-5 = 2*10-2 Seconds = 20 milliseconds
the capacitor and its associated resistor set the time constant.
In theory ... on paper where you have ideal components ... a capacitor all by itself doesn't have a time constant. It charges instantly. It only charges exponentially according to a time constant when it's in series with a resistor, and the time constant is (RC). Keeping the same capacitor, you change the time constant by changing the value of the resistor.
A circuit in which elements are connected in series.For example in RLC series circuit resistor,inductor and capacitor are connected in series.
The time constant of a 0.05 microfarad capacitor and a 200 K ohm resistor in series is simply their product, 0.05 times 200,000, or 10,000 microseconds, or 10 milliseconds. (Farads times ohms = seconds)
If a 10 microfarad capacitor is charged through a 10 ohm resistor, it will theoretically never reach full charge. Practically, however, it can be considered fully charged after 5 time constants. One time constant is farads times ohms, so the time constant for a 10 microfarad capacitor and a 10 ohm resistor is 100 microseconds. Full charge will be about 500 microseconds.
The time-constant is the resistance times the capacitance, so that's 47 x 47 and because the capacitance is in microfarads, the answer is in microseconds.
2*103*10-5 = 2*10-2 Seconds = 20 milliseconds
When it is connected to resistor
the capacitor and its associated resistor set the time constant.
The time constant of a 4.7 µF capacitor in series with a 22 KΩ resistor is about 103 ms.
In theory ... on paper where you have ideal components ... a capacitor all by itself doesn't have a time constant. It charges instantly. It only charges exponentially according to a time constant when it's in series with a resistor, and the time constant is (RC). Keeping the same capacitor, you change the time constant by changing the value of the resistor.
A transistor acts like a resistor when Gate is connected to Source.
Time constant = capacitance x resistance --> farads x ohms simplifies to units of seconds. (2 x 10-6 farads) x (2 x 103 ohms) = 4 x 10-3 seconds
That would be done by a resistor connected between the two plates.
Because the timing is set by the time constant of a resistor and a capacitor. With R in ohms and C in Farads, the time-constant is RC in seconds. If the capacitor leaks the timing will be wrong.