A measure of the average thermal energy of the molecules in it.
When an electric field is applied to accelerate them or when the temperature of the crystal is raised.
If the temperature gets higher than a limit (I think it is called Curie temperature) then the fundamental pagentic dipoles loose their orientation and the magnet looses its magnetic field.
I did a science fair experiment on this last year. It is found that magnets that have higher temperature were weaker. to support this claim you should research about the "curie point" which basically says that this is a temperature ( really hot) where the magnet will lose its magnetic properties.
Look in the room that you are in. Its temperature varies at every point in the room. IN addition, notice that the air moves at different rates at each part of the room and therefore in different directions. The temperature is different at every point but it has no direction. It just has one value at each point in the room - temperature. On the other hand, the air is moving at different rates (velocity) around the room. Therefore it has a magnitude concerning the velocity. Unlike the temperature however, the air is also moving in a certain direction at each point. Therefore, at each point in space, the temperature is different and has only one value of magnitude so it is a scalar field. The air would be known as a vector field because in addition to its magnitude, its velocity, it has direction because it is moving.
10 million degrees with a football field worth of hydrogen under a lot of pressure the process is called nuclear fusion
dynamic
Cold temperature Cold temperature
Zero Field Cooling - Field Cooling Measuring an effect from a field in the two following ways: ZFC- Applying the field at a relatively low temperature compared to a characteristic temperature and continuously measuring the effects of the field as you raise the temperature to a level well above the characteristic level. FC - Applying the field at a relatively high temperature compared to a characteristic temperature and continuously measuring the effects of the field as you lower the temperature to a level well below the characteristic level. FC can be thought of as the reverse process to ZFC. If the effect you're measuring doesn't reverse using ZFC-FC, then you have something interesting on your hands.
Zero Field Cooling - Field Cooling Measuring an effect from a field in the two following ways: ZFC- Applying the field at a relatively low temperature compared to a characteristic temperature and continuously measuring the effects of the field as you raise the temperature to a level well above the characteristic level. FC - Applying the field at a relatively high temperature compared to a characteristic temperature and continuously measuring the effects of the field as you lower the temperature to a level well below the characteristic level. FC can be thought of as the reverse process to ZFC. If the effect you're measuring doesn't reverse using ZFC-FC, then you have something interesting on your hands.
The best temperature for maximum yield of field corn is around 85º F.
A metal is said to be a superconductor if it has some resistance at room temperature, but when it is brought down to a critical temperature; i.e. to a very low temperature such as 20 K, it loses its resistivity completely. Also, a superconductor expels out any magnetic field inside of it that it had at room temperature, and is not affected by any further field applied to it at its cooler temperature.
Gradient= Change in field value/Distance
Not until the magnet reaches its "Curie point" or temperature. Then magnetic activity ceases.
The magnetosphere is the magnet field emanating from the molten iron core of the planet out into space. It has no physical form and therefore has no temperature.
Frequency of alternating field applied & temperature
The temperature in both cases will depend on the exact details of the setup.
Gordon George Summers has written: 'Some surface effects of field and temperature on field-ion emitters'