answ2. There is a characteristic named Curie Point. This is the temperature at which an object loses its magnetism. A permanent magnet, or an electromagnet, are magnetic because all the magnetic domains (co-spin regions) are aligned in the same direction.
As you heat the magnet, the molecular bonds are the place the extra energy is absorbed, eventually resulting in the bonds becoming more and more randomized.
A1. It will melt the magnetic feild around it.
Heating a bar magnet above its Curie temperature would disrupt the alignment of its magnetic domains, causing it to lose its magnetization and its magnetic field strength would decrease. As the temperature decreases back below the Curie temperature, the magnet may regain some or all of its original magnetic properties.
When the external magnetic field is removed, the magnetic domain in a magnet can produce a weaker magnet due to randomization of the magnetic moments within the domains, causing them to lose alignment. This results in a decrease in the overall magnetic field strength of the magnet.
Three effective ways to demagnetize a magnet include heating it, striking it, and exposing it to an alternating magnetic field. Heating causes the thermal agitation of atoms, disrupting the magnetic alignment. Striking the magnet can break the alignment of magnetic domains, while an alternating magnetic field gradually reduces the magnetism by reversing the direction of the magnetic domains. Each method can effectively reduce or eliminate a magnet's magnetic properties.
You can demagnetize a magnet by heating it up to its Curie temperature, by striking it with a hard blow, or by applying an alternating magnetic field that disrupts the alignment of its magnetic domains.
Increasing temperature can decrease the field strength of a magnet because it causes the thermal agitation of the magnetic domains within the material. As temperature rises, the increased motion of atoms disrupts the alignment of these domains, which are responsible for the magnet's overall magnetic field. This disruption weakens the net magnetic field strength, leading to a reduction in the magnet's effectiveness. In some cases, if the temperature exceeds a certain threshold (the Curie temperature), the material may lose its magnetic properties entirely.
Heating a bar magnet above its Curie temperature would disrupt the alignment of its magnetic domains, causing it to lose its magnetization and its magnetic field strength would decrease. As the temperature decreases back below the Curie temperature, the magnet may regain some or all of its original magnetic properties.
When the external magnetic field is removed, the magnetic domain in a magnet can produce a weaker magnet due to randomization of the magnetic moments within the domains, causing them to lose alignment. This results in a decrease in the overall magnetic field strength of the magnet.
I suggest that you incinerate it.
The magnetic field is strongest at the poles of a magnet.
You can demagnetize a magnet by heating it up to its Curie temperature, by striking it with a hard blow, or by applying an alternating magnetic field that disrupts the alignment of its magnetic domains.
A Magnetic Force
Where is the magnetic field around a magnet strongest? Answer: A magnetic field is strongest around the poles. Your welcome! :)
The magnetic field is strongest at the poles of a bar magnet.
The magnetic force of a magnet is strongest at its poles. This is because the field lines of the magnetic field are most concentrated at the poles where they enter and leave the magnet. At the poles the magnetic field is strongest and the force is the greatest. The north pole is where the magnetic field lines enter the magnet. The south pole is where the magnetic field lines leave the magnet. The magnetic field lines are most concentrated at the poles. The magnetic force is greatest at the poles.
Magnetic forces act between objects that have a magnetic field, such as between two magnets or between a magnet and magnetic material like iron. The forces are strongest at the poles of the magnets and decrease with distance.
The space around a magnet where its magnetic influence can be felt is called the magnetic field. It is the region in which magnetic forces are experienced due to the presence of the magnet.
Heating the magnet above its Curie temperature to randomize the magnetic domains. Applying a strong external magnetic field in the opposite direction to the magnetization. Mechanical shock or vibration to disrupt the alignment of magnetic domains. Exposing the magnet to alternating current or an alternating magnetic field. Degaussing using a degausser machine that generates a powerful, alternating magnetic field to reset the magnetization to zero.