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to produce uniform magnetic field
To make a long story short I wanna mention the name of several methods to make uniform dc magnetic fields: Using the space inside a solenoid Using the Helmholtz coil Using the Maxwell coil as all of these configurations take benefits of the phenomena in which current produces a magnetic field, the amplitude of the magnetic field would be easily controlled by control upon the current passes the loops of windings.
Uniform magnetic field depends on the position of its surrounding. A non uniform magnetic field changes its position from one place to another.
In a uniform magnetic field the imaginary magnetic lines of force are parallel to each other. But in case of non uniform they are not parallel
An elecromagnet is the entire set of coils which produce a magnetic field when an electrical current is run through the wire. A solenoid is a single coil in the electromagnet.
it will produce a stronger magnetic field.
in order to produce a uniform magnetic field
to produce uniform magnetic field
When current is passed through a solenoid coil, magnetic field produced due to each turn of solenoid coil is in the same direction. As a result the resultant magnetic field is very strong and uniform. The field lines inside the solenoid are in the form of parallel straight lines along the axis of solenoid. Thus, the solenoid behaves like a bar magnet.
To make a long story short I wanna mention the name of several methods to make uniform dc magnetic fields: Using the space inside a solenoid Using the Helmholtz coil Using the Maxwell coil as all of these configurations take benefits of the phenomena in which current produces a magnetic field, the amplitude of the magnetic field would be easily controlled by control upon the current passes the loops of windings.
Uniform magnetic field depends on the position of its surrounding. A non uniform magnetic field changes its position from one place to another.
-- Form a continuous circuit out of a conducting material. -- Move the conductor through the magnetic field, at an angle to the magnetic 'lines of force'.
All electrical circuits produce a magnetic field around the wires when a current is travelling. If we want to generate a large field, we can coil the wire. Such a coil is called a solenoid.
No, just close. A solenoid provides a magnetic field that is approximately uniform near its center. (One should compare this to a Helmholtz coil.) The keyword is "approximate" and one really understand the assertion of uniformity to mean nearly uniform near the center. To say that it is a good approximation would mean that small deviations from the center produce variations that are small. Specifically, one would expect variations that deviate from a constant magnetic field to be no worse than quadratic with distance and that is actually correct. (It may even be fourth order but that requires a calculation to check.) To give another rough idea of the field variation, it is simple to prove that for a long solenoid, the field at the end is half of the field at the center, so it does vary by a factor of two along its length.
All electrical circuits produce a magnetic field around the wires when a current is travelling. If we want to generate a large field, we can coil the wire. Such a coil is called a solenoid.
The magnetic field produced by electric current in a solenoid coil is similar to that of a bar magnet.
In a uniform magnetic field the imaginary magnetic lines of force are parallel to each other. But in case of non uniform they are not parallel