The word is "remnant magnetization."
Many materials which are capable of being effected by a magnetic field will retain some of those properties once its no longer in direct contact with the field. One example is iron. It can become magnetized by being introduced to a magnetic field and then continue to remain magnetic once the source field is removed.
After the mixing the properties of substances remain unchanged.
The remaining minerals are called evaporites.
In general, steel nails will not remain "joined" if a magnet touching them is removed. It is important to note that nails affected by a magnet retain a weak "impression" of the field and remain slightly magnetic. But the magnetic field "impressed" on the nails will be quite small and will not hold the nails together once the magnetic is removed.
The separation method used to separate iron objects from a mixture with a magnet is called magnetic separation. This technique exploits the magnetic properties of certain materials, allowing magnetic substances like iron to be attracted to a magnet while non-magnetic materials remain unaffected. It is commonly used in various industries to efficiently remove ferrous materials from non-ferrous ones.
The following minerals have magnetic properties: Magnetite and hematite are ferromagnets. Ferrites and garnets are ferrimagnetic. Quartz, calcite, and mica are all magnetic. Although they have a small magnetic attraction, these minerals do not remain magnetic.
Many materials which are capable of being effected by a magnetic field will retain some of those properties once its no longer in direct contact with the field. One example is iron. It can become magnetized by being introduced to a magnetic field and then continue to remain magnetic once the source field is removed.
Minerals remain as a solid residue.
The iron filings will be attracted to the magnet and stick to it due to their magnetic properties. The sulfur powder will remain unaffected as it is not magnetic. You will observe the separation of the iron filings from the sulfur powder as the magnet is rolled through the mixture.
Intensive properties remain the same with a change in the amount of a substance - for example: temperature and density Extensive properties do not remain the same with a change in the amount of a substance - for example: mass and volume
After the mixing the properties of substances remain unchanged.
The properties remain the same in a mixtrue.
Some examples of permanent magnets are neodymium magnets, samarium-cobalt magnets, and alnico magnets. These magnets are made from materials that retain their magnetic properties for long periods without needing an external magnetic field to remain magnetized.
The remaining minerals are called evaporites.
horizontal with its north pole pointing towards magnetic north.
In general, steel nails will not remain "joined" if a magnet touching them is removed. It is important to note that nails affected by a magnet retain a weak "impression" of the field and remain slightly magnetic. But the magnetic field "impressed" on the nails will be quite small and will not hold the nails together once the magnetic is removed.
Antimatter particles have the opposite electrical charge and magnetic characteristics compared to their matter counterparts. For example, the positron has a positive charge while the electron has a negative charge. Similarly, the magnetic properties of antimatter are opposite to those of matter.