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270000
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what happens when a permanent magnet is wound with a copper wire (inductor) and the inductor is connected to some volatge? Will the magnetic flux of the permanent magnet increase (i.e., make the permanent magnet more strong)?
270000 said:what happens when a permanent magnet is wound with a copper wire (inductor) and the inductor is connected to some volatge? Will the magnetic flux of the permanent magnet increase (i.e., make the permanent magnet more strong)?
270000 said:what happens when a permanent magnet is wound with a copper wire (inductor) and the inductor is connected to some volatge? Will the magnetic flux of the permanent magnet increase (i.e., make the permanent magnet more strong)?
The purpose of winding a permanent magnet with a copper wire is to create an electromagnet. When an electric current passes through the copper wire, it creates a magnetic field that interacts with the permanent magnet, producing a stronger magnetic field.
The number of windings directly affects the strength of the electromagnet. The more windings there are, the stronger the magnetic field will be. This is because each turn of the wire adds to the overall magnetic field created.
Yes, the direction of the current can affect the magnetic field of the electromagnet. The direction of the magnetic field is determined by the direction of the current flow in the wire. Reversing the direction of the current will also reverse the direction of the magnetic field.
If the copper wire used for winding is too thin, it may not be able to carry enough current to create a strong magnetic field. On the other hand, if the wire is too thick, it may be difficult to wrap around the magnet and may not fit in the available space. It is important to use the appropriate thickness of wire for the desired strength and size of the electromagnet.
Yes, an electromagnet can be turned on and off by controlling the flow of current through the copper wire. When the current is flowing, the electromagnet is on and producing a magnetic field. When the current is turned off, the electromagnet is off and the magnetic field disappears. This feature makes electromagnets useful for a variety of applications.