An unmagnetized piece of iron has its atoms pointing in different directions, and opposing each other. When the iron is magnetized, the atoms are mostly pointing in the same direction, and the fields add together.
one is magnetized and the other isn't! sorry for a bad answer but i cant find it in my textbook. ps im in 6th grade!
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The difference: Unmagnetized iron atoms, are not coordinated to each other, while magnetized are coordinated, like this:nsnsnsnsns, etc, in long parallel lines
i needto know to
A non-magnetized piece of iron would capture the magnetic particles.
one is magnetized and the other isn't! sorry for a bad answer but i cant find it in my textbook. ps im in 6th grade!
"random"
Yes. In this case, the magnet will induce magnetism in the iron, which is originally unmagnetized. Once the magnet is removed, the iron may return to an unmagnetized state; unless the magnetic field near the piece of iron is very strong.
The difference: Unmagnetized iron atoms, are not coordinated to each other, while magnetized are coordinated, like this:nsnsnsnsns, etc, in long parallel lines
i needto know to
It was in around 1734, that Swedenborg, a Swedish scientist brought to notice the differences between a magnetized piece of iron and an unmagnetized one. The magnetic substance that was discovered for the first time ever was magnetite. But Louis Neel, a French physicist disapproved this discovery by coming up with the concept of ferromagnetism.
A non-magnetized piece of iron would capture the magnetic particles.
Iron is a magnetic element therefore it will be attracted by a magnet.
Iron is naturally magnetized.
a temporary magnet is a piece of soft iron that is magnetized while in the presence of a magnetizing field but demagnetizes the moment the iron is taken away from the magnetizing force
The iron shavings get temporarily magnetized, due to the influence of the magnet. Thus, you have two magnets attracting each other - the original magnet, and a piece of iron shaving.
It will stick to either pole, providede that the iron is not magnetized and that it is not above the Curie temperature (the temperature above which iron can no longer be magnetized, named after Marie and Pierre Curie).