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Natural Science Forum / Physics / Particle Physics / July 2005



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Mass Compton wavelength constant.

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Golden Boar - 23 Jun 2005 11:03 GMT
I just noticed the following relationships.

p / f = m.lC = kmC

where

p is the momentum
f is the frequency
m is the mass
lC is the Compton wavelength
kmC is the constant of proportionality

so

m = kmC / lC

and

p = kmC.f

The mass of a particle is inversely proportional to its Compton
wavelength.
The momentum of a particle is proportional to its frequency.

I was just wondering if the constant, kmC has been named because I
would like more info on this. Does anyone know where I could get more
info on this?
John C. Polasek - 23 Jun 2005 19:01 GMT
>I just noticed the following relationships.
>
[quoted text clipped - 23 lines]
>would like more info on this. Does anyone know where I could get more
>info on this?
kmC = h/c. There is no constant and the relationship isn't
interesting.
John Polasek
http://www.dualspace.net
Golden Boar - 24 Jun 2005 01:05 GMT
> >I just noticed the following relationships.
> >
[quoted text clipped - 27 lines]
> John Polasek
> http://www.dualspace.net

h = kmC.c
m = kmC/lC
p = kmC.f

Planck's constant is directly proportional to the speed of light in a
vacuum.
Mass is inversely proportional to the Compton wavelength.
Momentum is directly proportional to frequency.

The constant of proportionality, kmC, is about 2.2102188e-42 kg.m

Why do you think kmC is not a constant?

What would a particle behave like if its mass was:

A) greater than its Compton wavelength
B) equal to its Compton wavelength
C) less than its Compton wavelength

This is interesting to me, and I would like to know more about this.
Golden Boar - 24 Jun 2005 21:39 GMT
This proves that the Compton wavelength for one Planck mass is not
equal to the Planck length, but equal to the Planck length times 2 pi.
Jeff - 04 Jul 2005 20:10 GMT
...just so you will know, this constant: [ 2.2 x 10^-42 kilogram-meters
] is from "Reality Physics" and is called: "Jeff's Constant" and
describes the interaction of sub-atomic particles (Fermions) with the
"active" inertial reference background of the universe. This is shown
on page 69 of the book entitled: "FROZEN LIGHT!", as described on the
webaite:

  >    www.realityphysics.com   <

Here is the constant: "J" as it represented in the book:

J = 2.2 x 10^-42 kg.-m. = h / c = p / f = m c / f = E / a = E m / F =
m^2 c^2 / F = F / f^2 = F c^2 / a^2

where: J = Jeff's Constant (The Mass-Action Constant of the universe)
          c = the speed of light (or time)
          h = Plank's Constant
          p = momentum
          f = frequency
          m = mass
          E = energy
          a = centrifugal acceleration
          F = force

all the best,

Jeff Lee   CENTER FOR REALITY PHYSICS
Golden Boar - 17 Jul 2005 18:35 GMT
> ...just so you will know, this constant: [ 2.2 x 10^-42 kilogram-meters
> ] is from "Reality Physics" and is called: "Jeff's Constant" and
[quoted text clipped - 23 lines]
>
> Jeff Lee   CENTER FOR REALITY PHYSICS

You may be interested in the following:

mlC = mx * lCx

h = mx * (lCx * 2 * pi) * c
hbar = mx * lCx * c
hdot = mx * (lCx/2) * c

muB = Qp * (lCe/2) * c
muN = Qp * (lCp/2) * c

muE = Qp * (lCe/2) * c * gc

where,

mx is the mass
lCx is the Compton wavelength divided 2 pi
mlC is the mass-length constant.
h is Planck's constant
hbar is Planck's constant divided by 2 pi
hdot is hbar divided by 2
muB is the Bohr magneton
muN is the nuclear magneton
muE is the electron magnetic moment
Qp is the charge of the positron and proton
gc is the correction terms applied to the gyromagnetic ration of the
electron.
 
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