The size of the wire and the number of turns on the field windings for a 6-volt application depend on the specific design and requirements of the motor or generator. Typically, for low-voltage applications like 6 volts, you might use a thicker wire (like AWG 18 to 22) to minimize resistance and heat generation. The number of turns will vary based on the desired magnetic field strength and the specific geometry of the winding, but it often ranges from a few dozen to several hundred turns. It's essential to consult the design specifications or guidelines relevant to the particular device being used.
45 volts
20,000 volts = 20 kv
none!
A #30 gauge wire is very thin. This small a wire is usually used in magnetic coil production. Many turns to create a coil will produce a strong magnetic field when a voltage is applied to the coil. It is about this size of wire that is used in older motor vehicle spark plug coils. The coil is a transformer that has 12 volts DC applied to it and when the field collapses due to the breaker points opening induces a high secondary voltage, up to 20,000 volts, in to the many, many turns of the fine wire of the coil.
13,800 volts 1 kv = 1 kilovolt = 1000 volts
The ratio of the primary voltage to the secondary voltage is proportional to the ratio of windings. So if the primary voltage is 120 volts and the secondary is 240 volts there are twice as many turns in the secondary.AnswerAs the previous answer says, you can work out the turns ratio of a transformer, but knowing the primary and secondary voltages will not help you determine how many turns are on each winding.
Voltage is a measure of "pressure" in an electrical circuit. Electrical voltage is produced as a function of the number of windings in a field coil in comparison to the number of windings in the stator of a generator. the greater difference in the number of windings the greater the voltage. This voltage can also be modified by transformers, which are coils in the circuit that transfer electricity from one coil to another by induction. The difference in the number of windings in one coil to the other coil will determine the change in voltage. So by taking a circuit with a voltage of , say, 110 volts, by installing a transformer that has twice as many windings in one coil than the other, you can transform the voltage from 110 volts to 220 volts.
It depends on both the wiring of the motor and what if any residual magnetic field remains in the field windings. If there is some residual field, you will get some volts, but not many. If the motor has permanent magnets, it is effectively a dynamo.
There is (240 / 1344) = 179 milli volts per turn. The output voltage is 50 volts, so 50 / .179 = 280 turns on the secondary.
Generator output voltage is determined by the number of windings, strength of magnetic flux and the speed the flux crosses the windings. With the flux and windings remaining the same, a larger unit will have higher voltage than a smaller one. There is no single answer to this question.
It depends on the type of transformer.If it is a step up transformer the number of turns in secondary side is higher than primary.Stepdown means it will have fewer number of windings on the secondary side turns when compared with the primary side.An isolation transformer has the same number of windings on the primary as the secondary.The ratio of the windings is proportional to the increase or decrease in the secondary voltage. For example, twice the windings doubles the voltage and 1/2 the windings halves the secondary voltage. The isolation transformer is denoted as 1:1 and has the same voltage on the secondary as the primary.The ratio of secondary turns to primary turns is the same as the ratio of secondary voltage to primary voltage.e.g. if the secondary to primary turns ratio is 1/10, then the secondary voltage will be one tenth of the primary voltage.
A transformer works only with AC power, and has two windings each with many turns of wire round an iron core. The power is connected to the primary winding and taken off from the secondary winding. The voltage applied to the primary sets up a magnetic field in the iron core, and because this same field links the secondary, a voltage is induced in the secondary. The main use of a transformer is to convert power at one voltage to almost as much power at another voltage. Transformers have a conversion of efficiency of 60-99%, and the highest efficiency is found with the largest tansformers. The conversion ratio of the voltages is the same as the ratio as the number of turns in the two windings, in other words the number of volts per turn is the same for the primary and secondary. A voltage step-down transformer has fewer turns of wire on the secondary.
110 V gives 240 T and 1200 V gives X? so X=(1200V*240T)/110 V=2619 Turns
600 volts I'd like to point out that your question is asking for the secondary voltage, which is usually lower than the primary, where there are more windings on the secondary than primary - Thus your secondary is higher voltage than your primary. I would say the question should be worded differently so the primary has 500 windings, and the secondary has 100 windings.
if it has the old style 12 volt coil with points, the primary has 12 volts, the secondary, normally around 200 more windings than the primary therefore delivers approximately 20,000 volts to the spark plug. The units that use an ignition control box or magneto type coil that works via a magnetic field generated as the flywheel magnets pass by the unit also delivers 20,000 volts. Aftermarket battery powered coils claim to produce up to 40,000 volts but its a gimmick as it makes no difference in a low compression environment.
Transformers come in very many varieties and voltages. Transformers have ratings regarding the electrical power that they are connected to. The most important ratings are voltage, power and current. In general the insulation level and number of windings in the secondary and primary determine the maximum rated voltage, and the size of the magnetic wire that makes up the windings, and mass of the iron core, determines the rated power and rated current. It is the insulation level therefore, that determines the maximum, safe voltage that can occur on both the secondary side and the primary side. The turns ratio between the primary and secondary coils of the transformer determines the secondary voltage with respect to the primary voltage. If the primary coil has 1000 turns, and the secondary coil has 100 turns, the transformer turns ratio (usually designated by the letter "a") is 100 / 1000 = 0.1. If a = 0.1, then if 1000 volts are applied across the primary coil, ideally, 100 volts will be measured across the secondary. Transformers have been manufactured with secondary voltage ratings in the range of millivolts, to 1,000,000 volts.
There is no relationship between eV and V. An electron/volt is the energy acquired by an electron as it moves through an electric field of one volt. So 110 KeV is the energy acquired by an electron as it moves through an electric field of 110,000 volts.