m453438 said:
berkeman said:
The Electrician said:
Impedance in an ideal transformer circuit refers to the total opposition to current flow in the circuit. It is a combination of resistance, inductance, and capacitance, and it is measured in ohms.
In an ideal transformer circuit, impedance can be calculated by taking the ratio of the square of the number of turns on the secondary winding to the square of the number of turns on the primary winding, multiplied by the impedance of the load on the secondary side.
In an ideal transformer circuit, the impedance on the primary side is equal to the impedance on the secondary side multiplied by the square of the turns ratio. This means that as the voltage increases on the secondary side, the impedance also increases proportionally.
In an ideal transformer circuit, the frequency of the input voltage has a direct impact on the impedance. As the frequency increases, the impedance also increases. This is because the inductance and capacitance in the circuit are directly proportional to frequency.
The main factors that can affect impedance in an ideal transformer circuit are the number of turns on the primary and secondary windings, the frequency of the input voltage, and the type and value of the load connected to the secondary side. Additionally, the physical properties of the transformer, such as the core material and size, can also impact the impedance.
