Voltage from the trigger coils activates the ignition system in engines, particularly in ignition coils or distributors. This voltage generates a spark that ignites the air-fuel mixture in the engine's cylinders, enabling combustion. In some applications, it can also trigger other components, such as relays or control modules, to initiate various electrical functions in the vehicle.
Generator coils generate the voltage, motor coils use the generated voltage.
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.
These are two different rating coils. I will not take 24V and 240V ac coils in this explanation, I will take low voltage ac coil and high voltage ac coil in the explanation in general. Low voltage ac coils have low insulation in general compared to the high voltage coils since we need more insulation for the high voltage coils. Low voltage ac coils have less no of turns and less diameter of coil compared to high voltage ac coils. But the thickness of the conductor used for the ac coil depends on the current rating of the coil only it does not depends on the voltage.
the point of input voltage at which Q1 begins to conduct
No one knows.
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
Generator coils generate the voltage, motor coils use the generated voltage.
well if you doubled the coils it would be pie times the amount of voltage in the current squared
I think you mean 'turns' rather than 'coils' (a coil is made up of a number of turns). The answer is that, yes, the turns ratio is the same as the voltage ratio, for an ideal transformer.
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 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.
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.
A step- down transformer is one whose secondary voltage is less than its primary voltage, it is used to reduce 'step down' the voltage applied to it. The number of coils in the primary circuit is greater that the secondary circuit. For instance, to step down 480 Voltage to 240 voltage, you need a step down transformer whose ratio of primary coils to secondary coils is 2:1.
Increasing the number of coils on a generator can increase its voltage output. More coils mean more wire loops, which can generate a stronger magnetic field and induce a higher voltage. This can be useful in increasing the power output of the generator.
These are two different rating coils. I will not take 24V and 240V ac coils in this explanation, I will take low voltage ac coil and high voltage ac coil in the explanation in general. Low voltage ac coils have low insulation in general compared to the high voltage coils since we need more insulation for the high voltage coils. Low voltage ac coils have less no of turns and less diameter of coil compared to high voltage ac coils. But the thickness of the conductor used for the ac coil depends on the current rating of the coil only it does not depends on the voltage.