On Saturday, August 19, 2023 at 10:16:11 AM UTC-4, Jim Pennino wrote:
mitchr...@gmail.com <mitchr...@gmail.com> wrote:
What is the strength of its magnetism
and its electric field? They both would
create each other at the same time.
But is what is their strength?
Mitchell Raemsch
See Maxwell's equations, moron.
Hello Jim Pennino,
Maxwell's equations are useful for describing electromagnetic waves,
but in 1870, the electron, photon particle, and the proton were not known.
In order to decompose light into its most primitive components, I
recommend the following ideas.
magnetism can be the H field or B field
H =velocity of lines of flux or (speed)
B = frequency with which lines of flux are passing through an area (Hertz)
So if light has a magnetic field, is it H or B?
Energy is not contained in a photon. Energy has time squared in it.
Energy has distance squared in it.
Energy is force * distance = acceleration times distance * (something)
Energy = (distance squared / time squared)* something
where (something is mass or charge)
mass = area of the spacetime continuum
So a photon, to be decomposed into two items, cannot have energy.
Atoms have energy changes when emitting or absorbing a photon.
If a photon has an energy associated with it, that is only a
potential energy for accountants to pretend energy is
always conserved, not energy.
A photon is a fraction of an atomic wavefunction. (2/3)
A wavefunction has 3 dimensions, in my theory. X, Y, T.
A photon has two dimensions X, T.
That is the most primitive description for light, not E and H fields.
E*H = acceleration * velocity = meter square per second cubed
E*B = acceleration * Hertz = meter per second cubed
Wrong and wrong.
See my website for photon sketches using the most primitive
dimensions:
https://impuremath.wordpress.com/contraspline/
see Fig 5 and Fig. 6
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