Abstract
The research mainly focuses on the fine structure constant , a coupling constant that is taken as a term responsible for the quantization of electric charge .Here what is the thing that persuades one to think about the relationship of fine structure constant with the quantization is that it is a constant and only determined by the single proton and photon interaction . ie only +e photon interaction that leads to the generation of a –e , from that photon. What is the effect of the wave entering in the potential well of a proton ? If a photon enters a torsion field , a magnetic moment is generated on it and there is a net charge on the system due to that magnetic moment .What , if this is the way an electron is produced by a photon , in the presence of a potential well (of proton), and the electric charge produced on the photon is quantized as an integral multiple of e and the deterministic factor for quantizaton is α (the fine structure constant ). This is the way a photon produces electron positron pair and their production is determined by Heisenberg’s Uncertainity Principle . What this research says .
Uncertainity principle a deterministic principle in pair particle generation
Assuming a photon wave entering in a potential field V and then the effect on its velocity is a function of the potential field . If we take the charge to be a quantized unit , then for a single +e photon interaction , this velocity change will always be constant . That is like , we can take fine structure constant α . where α= v/c ; If we take here that this velocity change is due to the change in the electric and magnetic field’s strengths (E/B=v) as a result of an extra magnetic moment developed on the photon (torsion causes a magnetic moment generation on photon of magnitude of µγ =
. ) of the
q mγc magnitude of µB (Bohr Magneton ) . where µB =
. This is the magnetism that is
e 2 me c responsible for the generation of –e charge on the photon wave producing an electron . The velocity of the electron is the velocity of photon where now magnetic field and electric field strengths are changed from E/B=c to E/B=v just because of the extra magnetic moment produced in the torsion background by a proton’s field .
Now as Dirac says that the observed electric charge quantization can be accounted for if magnetic charges or magnetic monopoles are allowed , provided the magnetic charge unit and the unit of electric charge satisfy a reciprocal relationship . The Dirac quantization condition given by q=
n
e 2α
Where q is the magnetic pole strength and α fine structure constant . Now when we take a n=1 for a single –e charge . Then q =
e 2α Putting α =
v c q=
----- 1
ec 2v We can then say that for –e charge to be developed on behalf of the magnetic moment generation on photon in that potential field , the velocity of the wave has changed from c to v and where v=
------2
e c 2q Since the quantized magnetic moment developed on the wave is equal to µB , we can replace the magnetic part in the above equation relating magnetic pole strength with the magnetic moment . We know that magnetic moment µ = q x. Where x is the distance between the two magnetic poles . Then q =
µ x
Putting µ as µB we get
q=
e 2me cx Putting this value of q in equation 2 we get v=
------- 3
me xc
2
from equation 3
x v = me c 2 x 1 v = me c c
x 1 = α p Where p = mec , the momentum of electron wave when it should be normal to space . But if we take the distance between the two poles to be varying and then momentum too varies as the electron will change in its velocity according to the fields effect upon it , the mec breaks in mev and (mec – mev) . where mev shows the velocity of electron and (mec – mev) shows the velocity of positron in space . From this equation we can easily see that the particles and anti particles are a compensating magnetic charges for each other and as one travels in space always determines another’s position in the space . If we put x as distance between particle and antiparticle and Xp as the position of particle in space and Xap position of antiparticle in space then ∆x = Xp - Xap . And ∆p = mec = mev + (mec – mev) because the momentum difference between these two particles will always remain equal to mec .As that of one increases that of another decreases .A compensating property . It is quite consistent with Heigenberg’s uncertainity principle Where
∆x∆p=α
Discussion The above expressions say that the quantization of charge is determined by fine structure constant and the photon when is passed through a torsion background causes a pair particle production whose statistics are determined by the uncertainity principle . It means when a particle is produced its antiparticle is generated simultaneously and the distance between particle and antiparticle is delta x that says here that the particle and antiparticle are like a separated magnetic poles of an elongated magnet whose length keeps on changing as these particles cover distances in space. And the momentum of a particle and antiparticle always follow the law of conservation of angular momentum . If α becomes a variable and varies in a linear way , it means charge too can increase linearly rather being quantized . But α as a constant , directs towards quantization of charge .If it is so then those variables that can bring change in α can reveal the causes behind the quantization of charge .
References
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