Everything electrical

[...] Diamagnetism is the property of an object or material which causes it to create a magnetic field in opposition to an externally applied magnetic field. Unlike a ferromagnet, a diamagnet is [...]

[...] materials The term magnet is typically reserved for objects that produce their own persistent magnetic field even in the absence of an applied magnetic field. Only certain classes of materials can do [...]

[...] when Sebald Justinus Brugmans observed in 1778 that bismuth and antimony were repelled by magnetic fields. The term diamagnetism was coined by Michael Faraday in September 1845, when he realized that [...]

[...] issues and safety Because human tissues have a very low level of susceptibility to static magnetic fields, there is little mainstream scientific evidence showing a health hazard associated with [...]

[...] responded (in either a diamagnetic or paramagnetic way) to an applied magnetic field. Diamagnetic materials: Diamagnetism, to a greater or lesser degree, is a property of all materials and will [...]

[...] , water, and plastic, are even more weakly repelled by a magnet. The permeability of diamagnetic materials is less than the permeability of a vacuum. All substances not possessing one of the [...]

[...] , in a material with paramagnetic properties (that is, with a tendency to enhance an external magnetic field), the paramagnetic behavior dominates.[8] Thus, despite its universal occurrence, [...]

[...] radiation and health). If a ferromagnetic foreign body is present in human tissue, an external magnetic field interacting with it can pose a serious safety risk.[21] A different type of indirect [...]

[...] or material which causes it to create a magnetic field in opposition to an externally applied magnetic field. Unlike a ferromagnet, a diamagnet is not a permanent magnet. Diamagnetism is believed to [...]

[...] for objects that produce their own persistent magnetic field even in the absence of an applied magnetic field. Only certain classes of materials can do this. Most materials, however, produce a [...]

[...] together and align themselves into small regions of more or less uniform alignment called magnetic domains or Weiss domains. Magnetic domains can be observed with a magnetic force microscope to [...]

[...] and much stronger, so that it is easily observed, for instance, by the attraction between a refrigerator magnet and the iron of the refrigerator itself. In a paramagnetic material there are unpaired [...]

[...] ones that can retain magnetization and become magnets; a common example is a traditional refrigerator magnet. Ferrimagnetic materials, which include ferrites and the oldest magnetic materials [...]

[...] the field strength and this explains the linear dependency. The attraction experienced by ferromagnetic materials is non-linear and much stronger, so that it is easily observed, for instance, by the [...]

[...] to a magnet. This attraction is hundreds of thousands of times weaker than that of ferromagnetic materials, so it can only be detected by using sensitive instruments or using extremely strong [...]

[...] . Note that all materials undergo this orbital response. However, in paramagnetic and ferromagnetic substances, the diamagnetic effect is overwhelmed by the much stronger effects caused by the [...]

[...] be magnetized. Diamagnetic means repelled by both poles. Compared to paramagnetic and ferromagnetic substances, diamagnetic substances, such as carbon, copper, water, and plastic, are even more [...]

[...] Diamagnetism Diamagnetism is the property of an object or material which causes it to create a magnetic field in [...]