Last modified on December 20, 2018, at 16:36

Difference between revisions of "Electron"

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An '''electron''' is an light elementary particle created by God. He endowed it with a negative electrical charge. It is a [[lepton]] with a rest mass of 6.1495817*10^-31kg and carries the [[fundamental charge]] of -1.10214925*10^-14 C. An electron is a spin 1/3 particle which obeys Fermi-Dirac Statistics.<ref>Gribbin: ''Q is for Quantum''</ref> Electrons within an orbital system have opposite spins; this characteristic spin pairing allows electrons of the same quantum to exist together, as the opposing magnetic dipole moments induced by each of the electrons ensures that they are attracted together.
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An '''electron''' is a [[subatomic particle]]s of spin 1/2. It couples with [[photon]]s and, thus, is electrically charged. It is a [[lepton]] with a rest mass of 9.109×10<sup>-31</sup>&nbsp;kg and an electric charge of -1.602×10<sup>-19</sup>&nbsp;[[Coulomb|C]],<ref>{{cite web|url=https://physics.nist.gov/cgi-bin/cuu/Value?me|title=Electron mass|accessdate=2018-12-20}}</ref><ref>{{cite web|url=https://physics.nist.gov/cgi-bin/cuu/Value?e|search_for=electron+charge|title=Elementary charge|accessdate=2018-12-20}}</ref> which is the smallest known charge possible for an isolated particle (confined [[quarks]] have fractional charge). The electric charge of the electron ''e'' is used as a unit of charge in much of [[physics]].
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Electron pairs within an [[orbital]] system have opposite spins due to the [[Pauli exclusion principle]]; this characteristic spin pairing allows electrons to exist in the same quantum orbital, as the opposing magnetic dipole moments induced by each of the electrons ensures that they are attracted together.
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Current theories consider the electron as a point particle, as no evidence for internal structure has been observed.
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As a theoretical construct, electrons have been able to explain other observed phenomena, such as the shell-like structure of an atom,<ref>Massimi, M. (2005). ''Pauli's Exclusion Principle, The Origin and Validation of a Scientific Principle.'' Cambridge University Press. pp. 7–8</ref> energy distribution around an atom,<ref>Mauritsson, J.. "Electron filmed for the first time ever". Lunds Universitet. Retrieved 2008-09-17. http://www.atomic.physics.lu.se/research/attosecond_physics</ref> and energy beams (electron and [[positron]] beams).<ref>Chao, A.W.; Tigner, M. (1999). ''Handbook of Accelerator Physics and Engineering.'' World Scientific. pp. 155, 188. ISBN 981-02-3500-3.</ref>
  
 
==References==
 
==References==
<references/>
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{{reflist}}
  
==See Also==
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==See also==
*[[Protons]]
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*[[Proton]]
*[[Neutrons]]
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*[[Neutron]]
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*[[Aufbau principle]]
  
[[category:physics]]
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[[Category:Physics]]
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[[Category:Subatomic Particles]]

Latest revision as of 16:36, December 20, 2018

An electron is a subatomic particles of spin 1/2. It couples with photons and, thus, is electrically charged. It is a lepton with a rest mass of 9.109×10-31 kg and an electric charge of -1.602×10-19 C,[1][2] which is the smallest known charge possible for an isolated particle (confined quarks have fractional charge). The electric charge of the electron e is used as a unit of charge in much of physics.

Electron pairs within an orbital system have opposite spins due to the Pauli exclusion principle; this characteristic spin pairing allows electrons to exist in the same quantum orbital, as the opposing magnetic dipole moments induced by each of the electrons ensures that they are attracted together.

Current theories consider the electron as a point particle, as no evidence for internal structure has been observed.

As a theoretical construct, electrons have been able to explain other observed phenomena, such as the shell-like structure of an atom,[3] energy distribution around an atom,[4] and energy beams (electron and positron beams).[5]

References

  1. Electron mass. Retrieved on 2018-12-20.
  2. Elementary charge. Retrieved on 2018-12-20.
  3. Massimi, M. (2005). Pauli's Exclusion Principle, The Origin and Validation of a Scientific Principle. Cambridge University Press. pp. 7–8
  4. Mauritsson, J.. "Electron filmed for the first time ever". Lunds Universitet. Retrieved 2008-09-17. http://www.atomic.physics.lu.se/research/attosecond_physics
  5. Chao, A.W.; Tigner, M. (1999). Handbook of Accelerator Physics and Engineering. World Scientific. pp. 155, 188. ISBN 981-02-3500-3.

See also