D
dryson
Guest
I posted a similar question a while ago. I believe I worded it as "is there a limit to how short the wavelength of a photon could be" the shorter the wavelength the higher the energy. I recall the consensus at the time was that there was no theoretical limit to how short a photons wavelength could be.
The question this: We know that in space the temperature of space is absolute 0.
http://www.nasa.gov/pdf/379068main_Temp ... _Space.pdf
We also know that the coldness of space effect's the magnetism of atoms.
http://www.newton.dep.anl.gov/askasci/p ... y00146.htm
Cold can have an effect on magnetism, because cold can have effect of how
fast charged particles move. It is the motion of charged particles, usually
electrons around a nucleus, that produces magnetic fields. Cooling a metal
can make the motion within less random, thus allowing more atoms to line up
with each other. This increases the magnetic field of the material. On the
other hand, making a magnet very hot will cause more random motion,
resulting in less allignment of molecules and less megnetism.
So could the light photon be effected in such a similiar manner? That where the longer the wavelength of the photon would mean that less energy is present. A decrease in energy of the photon would allow a colder area asround the atom or photon coupled with the fact that the colder an atom or photon is means that the very processes within the atom or photon would increases magnetically.
Bascially as the wavelength lengthen's the photon becomes "colder" in the sense of the heat associated with the length of the wavelength of the photon. At some point it might also be able to speculate that a light photon would transform into a atom.
So one way to theorize on how light might change into an atom is that as each photon goes through a change in it's wavelength propogation of producing longer wavelength's that are generating less heat there might be a point at which the propogation of wavelengths break down so that the actuall propogation of wavelengths begin to propogate in broken wavelengths of positive and negative energertic values.
[quotehttp://en.wikipedia.org/wiki/Photon][/quote]
If you'll look at the standard model of particle physics from the Wiki Link I can see something that you might also be able to see.
The physics model has four particles similar to an atom's particles.
e[super]-[/super]
e[super]+[/super]
q[super]-[/super]
and
q
What I am seeing is that the e[super]-[/super](electron),e[super]+[/super](positron) and q[super]-[/super] are creating an electromagnetic attraction between the e[super]-[/super], e[super]+[/super] and q[super]-[/super]. When the e[super]-[/super] and q[super]-[/super] come close to the e[super]+[/super] the electromagnetic fields of both particles repell each other due to being like fields but of different quantative values. When the e[super]-[/super] and q[super]-[/super] are forced away from the e[super]+[/super] to a distance where their fields do not effect each other the e[super]+[/super] field will then attract both particles back towards it thus starting the action of pulsing.
The q particle would be similar to the neutron particle that would create a buffer between the actions of the e[super]-[/super](electron),e[super]+[/super](positron) and q[super]-[/super] particles.
So as the wavelengths of a photon become more broken and longer and produce less heat the coldness of space causes each of the photon wavelengths to become more magnetically charged that change into little spheres of charged energy. As the now forming electrons and protons attract and repel to each other the neutrons become trapped between the protons thus forming an atom.
Depending upon the type of light and the amount of energy created by each frequency of light wavelength will determine the type of atom created which based upon the light photon's wavelength length.