Inductance and capacitance are never equal, since they have different units.
It's like asking "What happens when temperature is equal to cost ?"
It's possible for the inductive and capacitive reactances to be numerically equal,
though. That only happens at one frequency, and when it does, your circuit is
at resonance.
The reciprocal of capacitance is elastance. This is perhaps more convenient for circuit analysis than capacitance. In a circuit, a capacitor can be neglected if the elastance is set to zero. In the same way, a resistor/inductor can be ignored if its resistance/inductance is set to zero.
ratio of capacitance of capacitor is given by charge\potential
The mathematical relationship between time and capacitance in an RC (resistor-capacitor) circuit is described by the time constant, τ (tau), which is equal to the product of the resistance (R) and capacitance (C): τ = R × C. This time constant represents the time required for the voltage across the capacitor to charge to approximately 63.2% of its maximum value or discharge to about 36.8% of its initial value. Therefore, a larger capacitance results in a longer time constant, leading to slower charging and discharging times. Conversely, a smaller capacitance results in a shorter time constant, causing faster changes in voltage.
No, a capacitance of 1200 picofarads (pf) is not the same as 1.2 microfarads (uf). In fact, 1 microfarad is equal to 1,000,000 picofarads, so 1.2 microfarads is equivalent to 1,200,000 picofarads. Therefore, 1200 pf is significantly smaller than 1.2 uf.
Maximum capacitance can be achieved by increasing the surface area of the conductive plates, reducing the distance between them, and using a dielectric material with a high permittivity. Conversely, minimum capacitance can be obtained by decreasing the surface area of the plates, increasing the distance between them, or using a dielectric with a low permittivity. Additionally, removing the dielectric material altogether can also yield minimal capacitance. Thus, the design and material selection play crucial roles in determining capacitance values.
inductance
You can use a LCR (Inductance, Capacitance, Resistance) meter if you can find one.
The unit of power measured is watt, irrespective of resistance, capacitance or inductance of the circuit.
no, if it was it would act like inductance.
Yes, all electronic components have both stray capacitance and stray inductance.
All real components have both parasitic capacitance and parasitic inductance.
The series resistance (swamping resistance and multiplier) in pressure coil circuit has many turns.So in addition to inductance seen before, there are inter-turn capacitance also.If this capacitance effect exceeds the inductance effect, a phase-shift in pressure coil current will cause an error.When pressure coil capacitance roughly equals the inductance, the errors cancel each other.In most cases the inductance is more than the capacitance and thus the shunting capacitor mentioned before will serve the purpose.
The Maxwell bridge measures capacitance or inductance by balancing the unknown capacitor or inductor against known inductors or capacitors, with known resistors. In order to balance a bridge, there must be zero voltage across it. As a result, the vector for the capacitance leg must be exactly 180 degrees opposite, and of equal length, to the vector for the inductance leg.
The impedance of a circuit having an inductance and a capacitance in parallel at the frequency at which this impedance has a maximum value. Also known as rejector impedance.
electric reluctance
yes, parasitic. there is also parasitic inductance.
The main idea of the Maxwell bridge is to measure an unknown inductance by comparing it with a known inductance and resistance in a bridge circuit. By balancing the bridge, the unknown inductance can be determined by the ratio of the two inductances.