The absolute value of a number can be represented by vertical lines by the side of each number. For example, the absolute value of -3 would be represented by |-3| .
255
409610
Approximately 3.14159265. It can't be exactly represented as a decimal, or as a fraction.
It is multiplied by ten.
A Farad is the electrical unit of capacitance. Many commonly used capacitors (also known as condensors) are measured in micro-Farads (μF). A micro-Farad is one millionth of a Farad. To convert from micro-Farads to Farads, divide the micro-Farad value by one million. 2 micro-farads = 0.000002 Farads.
Zero watts can be installed in 1000 micro farads. Watts are the product of amperage times volts. Micro farads is a value used in talking about capacitance.
time delay will be 1/RC x 5 where R = value of resistor in ohms C= capacitance in Farads time delay will be 1/RC x 5 where R = value of resistor in ohms C= capacitance in Farads time delay will be 1/RC x 5 where R = value of resistor in ohms C= capacitance in Farads
While it is possible that the company producing the capacitor is using the NF as an identification tool, usually we would expect nF to specify the capacitance or value of the capacitor. For example, a capacitor with the value of 10nF ought to have a capacitance of about 10 nano Farads. This is equivalent to 10*10-9 Farads.
farads
The reactance of a capacitor is influenced by its capacitance value and the frequency of the alternating current passing through it. Higher capacitance results in lower reactance, while higher frequency leads to higher reactance. Temperature and the material used in the capacitor can also affect its reactance.
The use of the micro- prefix for capacitance, i.e. microfarads, is common because the farad is a very large unit of capacitance and we don't normally use capacitors in that range of value.
A capacitor is an electrical component that is measured in farads. Capacitors store electrical energy in an electric field and their value is specified in farads, which represents the amount of charge they can store per unit of voltage.
14 micro farads @ 1.4 seconds.. idk what it is at 2 seconds ;p
Find capacitance: C = Er * Eo * A / d C = (1.0005898) * (8.854×10−12)* (1meter squared) / 2 x 10^-6 C = 4.42 micro farads To determine charge Q: Q = C*V = 4.42 x 10^-6 * 10 volts = 4.42 x 10^-5 coulumbs.
Ah, what a lovely question. Well, the 200WV on a capacitor means it can handle up to 200 volts, while the 470uF tells us its capacitance, which is 470 microfarads. Isn't it wonderful how these little components have their own language to tell us how they can help in our creative endeavors? Just like a happy little tree in a capacitor forest.
The prefix "micro" means "a millionths of".