There are a few types of magnet.
STEEL MAGNETS: Steel is an alloy that consists mostly of iron(element) and has a carbon(element) content between 0.2% and 2.1% by weight, depending on the grade. Various other alloying elements are sometimes used, such as manganese, chromium, vanadium, and tungsten(elements).
NEODYMIUM is a naturally occuring magnetic metal element.
there are many different composite magnets too, see http://en.wikipedia.org/wiki/Magnets for more :)
"Structure" is an imprecise term. So is "magnet," for that matter.
The simplest kind of iron bar magnets have a structure of, well, iron. More complicated rare earth magnets generally have a more complicated crystal structure, but still, there aren't any "moving parts" inside a magnet, it's just whatever it's made of.
The structure of an electromagnet is basically "wire wrapped around a metal core of some kind". The core isn't actually required, but all else being equal an electromagnet with a soft iron core is stronger than one with no core.
There are several types of magnets, and this categorization depends of the materials that compose the magnet itself or as you called it, to what it "contains":
1. First magnets: natural magnet (magnetite, ceramic), iron and steel (metal).
2. Major traditional magnets: Alnicos (metal) and ferrite (ceramic). Ferrite magnetsare made of the most common, and is considered a hard material. The alnico is considered as a soft material (used for cores of Transformers and electromagnets).
3. Super magnets or rare earth magnets: cobalt magnets with rare earth (such as the Neodymium-Iron-Boron (NIB or NiFeB), Aluminum-Nickel-Cobalt (AlNiCo) and others, and neodymium (both metal).
4. The electromagnet: iron or steel with an electric field around it.
5. "Plastic" magnets: mixture of plastic with magnetic material, like those you can stick in the refrigerator.
Yes, the two poles of a magnet have the same atoms and elements. The magnetic properties of a magnet are a result of the alignment of the atoms within the material, not a difference in the type of atoms present in the two poles.
A neodymium magnet is known for its strong magnetism that can last for a long time. These magnets are made of rare earth elements and are commonly used in various applications where a strong, long-lasting magnetic field is required.
A magnet is made of ferromagnetic materials like iron, nickel, or cobalt which have magnetic properties due to the alignment of their electron spins. These aligned spins create a magnetic field that allows the magnet to attract or repel other magnets or magnetic materials.
No. Gold is not a magnetic substance.Well ... I guess if the sample is attracted to a magnet, then you've discovered that the sample is definitely not gold. That proof oughta be worth something.
Objects that are attracted to a magnet, such as iron, nickel, and cobalt, possess magnetic properties within their atomic structure. These materials have unpaired electrons that align with the magnetic field created by the magnet, causing them to be attracted to each other. Other materials, like wood, plastic, and glass, do not possess these magnetic properties and are not affected by a magnet.
Ferromagnetic elements as Fe, Co, Ni.
Metals + Stone = Magnet
Iron, Nickel and Cobalt
magnetized nickel and iron
Yes, the two poles of a magnet have the same atoms and elements. The magnetic properties of a magnet are a result of the alignment of the atoms within the material, not a difference in the type of atoms present in the two poles.
There are three elements in a magnet: iron, boron, and neodymium.
one of the three elements that a magnet will attach to
A spectroscope, possibly. A magnet is not the correct answer because there are several metallic elements which are magnetic.
Yes you can. Since the iron filings are magnetic, but sulphur is not - you can use a magnet to separate the two elements.
Cobalt and nickel are also magnetic elements.
Only Cobalt (Co), Iron (Fe) and Nickel (Ni) are magnetic
Factors that can weaken a magnet include exposure to high temperatures, physical impacts or drops, and demagnetizing fields. These elements can affect the alignment of the magnetic domains within the magnet, reducing its overall magnetic strength.