most of the domains line up so that the north pole of the object is attracted to the south pole of the magnet.
Iron can become a magnet when its magnetic domains align in the same direction. This can happen when iron is placed in a magnetic field, causing its domains to line up and create a magnetic field of its own. Once aligned, the iron will remain magnetized even after the external magnetic field is removed.
nothing will happen dumbazz because it isnt magnetic
De-magnetized refers to the process of removing the magnetic properties of an object, making it no longer magnetic. This can happen due to exposure to high temperatures, strong magnetic fields in the opposite direction, or physical impacts that disrupt the alignment of the magnetic domains within the material.
When magnetic flux passes through a ferromagnetic substance, the substance can become significantly magnetized. This is due to alignment of magnetic domains within the material, enhancing the overall magnetic effect. Ferromagnetic materials have a high magnetic permeability compared to non-magnetic materials, allowing them to concentrate magnetic lines of force.
An electromagnet must have an electric current passing through its coils to generate a magnetic field. The magnetic field is created as the electric current causes the alignment of the magnetic domains within the core material of the electromagnet, creating a magnetic field around the coil.
A paper clip is made up of iron or steel. It consists of particles called domains which are randomly arranged. When a magnet is rubbed on a paper clip, the domains arrange themselves in one direction. Thus it gets magnetized and behaves as a magnet.
Iron can become a magnet when its magnetic domains align in the same direction. This can happen when iron is placed in a magnetic field, causing its domains to line up and create a magnetic field of its own. Once aligned, the iron will remain magnetized even after the external magnetic field is removed.
nothing will happen dumbazz because it isnt magnetic
if the car drops and magnetic domains droop 2 from the crane then the car wont have any domains in the car because of the crane duhh lls :) yeaahh thats all but thats the answer.
spread out from one pole and curve around to the other
The domains are still there, but they point every which way, so the net combined magnetic field of all of them no longer has any preferred direction.
De-magnetized refers to the process of removing the magnetic properties of an object, making it no longer magnetic. This can happen due to exposure to high temperatures, strong magnetic fields in the opposite direction, or physical impacts that disrupt the alignment of the magnetic domains within the material.
For a nail to be magnetized, it must be exposed to a strong magnetic field, which aligns the magnetic domains within the material. This alignment can occur through direct contact with a magnet, rubbing the nail with a magnet, or placing it in a solenoid with an electric current. Once the domains are aligned, the nail retains its magnetism until it is demagnetized by heat, impact, or a reverse magnetic field.
When magnetic flux passes through a ferromagnetic substance, the substance can become significantly magnetized. This is due to alignment of magnetic domains within the material, enhancing the overall magnetic effect. Ferromagnetic materials have a high magnetic permeability compared to non-magnetic materials, allowing them to concentrate magnetic lines of force.
An electromagnet must have an electric current passing through its coils to generate a magnetic field. The magnetic field is created as the electric current causes the alignment of the magnetic domains within the core material of the electromagnet, creating a magnetic field around the coil.
Ancient Domains of Mystery happened in 1994.
The solenoid will create a magnetic field inside the solenoid, running parallel to the length of the solenoid. This will happen with or without any metal core, when the current is running. If there is an iron metal core the solenoid's magnetic field will rotate the atoms in the iron in such a way as to reinforce the solenoid's field. The iron atoms are themselves tiny magnets oriented randomly. When alligned, the tiny magnets add to the original solenoid field to give a much stronger magnet.