For a resonant LC circuit, the voltage across the inductor will always equal that across the inductor. I think your circuit is flawed, although I am not certain if you are indicating a power transformer at the bottom, or an RF transformer of some sort.Samson4 said:
It is a transformer. So such a circuit is impossible?tech99 said:
A Center Tapped LC Circuit is an electrical circuit that consists of an inductor (L) and a capacitor (C) connected in parallel with a center tap on the inductor. This center tap divides the inductor into two equal halves, creating a symmetrical circuit.
The center tap on the inductor creates two separate inductors, each with half the value of the original inductor. This results in a higher resonant frequency and a narrower bandwidth. The capacitor and inductor work together to create a resonant circuit, allowing for efficient energy transfer between the two components.
A Center Tapped LC Circuit is commonly used in radio frequency (RF) applications for tuning and filtering purposes. It can also be used in power supplies to provide a stable output voltage or in audio circuits for frequency selection.
The main advantage of a Center Tapped LC Circuit is its ability to provide a high Q factor, which is a measure of efficiency in energy transfer. This allows for a more precise and selective frequency response. Additionally, the center tap allows for easy adjustment of the resonant frequency by varying the number of turns on each side of the inductor.
One limitation of a Center Tapped LC Circuit is its narrow bandwidth, which means it can only efficiently transfer energy at a specific resonant frequency. This can be a disadvantage in applications where a wider frequency range is needed. Additionally, the inductor and capacitor values must be carefully chosen to ensure proper resonance, which can be challenging in some circuit designs.