No one knows.
i think that it is possible that for unknown circumstances i don't know it.
The effect of one coil on another primarily involves mutual inductance, where a changing current in one coil induces a voltage in a nearby coil. This interaction can lead to energy transfer between the coils, which is utilized in applications like transformers and wireless charging. Additionally, the alignment and distance between the coils can significantly influence the strength of the induced voltage. Overall, the interaction depends on factors such as the number of turns in the coils, their orientation, and the frequency of the changing current.
Generator coils generate the voltage, motor coils use the generated voltage.
There is no physical connection between the primary and secondary of a transformer. A transformer is essentially 2 laminated coils of wire interwoven with each other. The magnetic field created in the primary coil is induced into the secondary coil creating voltage on the secondary side.
If both coils of a transformer have the same number of turns, the output voltage will be the same as the input voltage. This is because transformers operate on the principle of electromagnetic induction, where the voltage ratio is directly proportional to the turn ratio. With equal turns on both the primary and secondary coils, there is no stepping up or down of voltage; the output voltage is effectively "canceled" to match the input voltage.
The induced voltage in a two-coil system is directly proportional to the magnetic field strength. As the magnetic field strength increases, the induced voltage in the coils also increases.
I would expect a voltage in both coils of wire.Note that, if the two coils are connected, the voltages (and corresponding currents) in the coils can interact. Also, if the two coils are NOT connected, they can STILL interact, since a current will produce its own magnetic field.
Each of the wattmeter's current coils are inserted into line conductors, and the voltage coils are connected in wye between each line conductor.
Coils at right angles do not couple if the distance is much greater than the diameters, but at close quarters there might be some small amount of coupling unless symmetry is perfect.
There is no positive and negative on a transformer. Transformers will only pass AC (alternating current), due to the fact that induction will only occur with a moving field. The current has to be changing polarity and intensity continuosly, for the current to be induced in the windings. Both terminals on the output vary, with relation to each other. Put DC into a transformer and the coils will saturate, overheat and probably burn out.
when rotor excited by ac voltage , the rotor current flow , and a magnetic field is produced .the rotor magnetic field induced an emf in the stator coils by transformer action.the effective voltage induced in any stator coildepend upon the angular position of te coil's axis w.r.t rotor axis sthitaprajna.rath@gmail.com
The more coils you have on one side will increase the magnetic force
The more coils you have on one side will increase the magnetic force
i think that it is possible that for unknown circumstances i don't know it.
The effect of one coil on another primarily involves mutual inductance, where a changing current in one coil induces a voltage in a nearby coil. This interaction can lead to energy transfer between the coils, which is utilized in applications like transformers and wireless charging. Additionally, the alignment and distance between the coils can significantly influence the strength of the induced voltage. Overall, the interaction depends on factors such as the number of turns in the coils, their orientation, and the frequency of the changing current.
Using transformers. The concept of transformers is that it can regulate voltage. Like it can increase the supplied voltage by 10 times or even more. It works in the ratio of coils. This ratio of coils are equal to the ratio of input/output voltages.
Generator coils generate the voltage, motor coils use the generated voltage.