At what velocity does an electron emits a photon? Another proof
for Ferent Quantum Gravity
“Because the electron is a photon around Dark Matter, the
electron receives and emits photons with the speed of light”
Adrian Ferent
At what velocity does an electron emits a photon? The answer is
another proof for Ferent Quantum Gravity (FQG).
In modern physics a charged particle emits and absorbs
energy, but its mechanism was not discovered.
All the Nobel Laureates, all the scientists, your professors…were
not able to answer to this question:
At what velocity does an electron emits a photon?
If you want to have fun, just ask your professors these
questions:
At what velocity does an electron emits a photon?
Does have photon an acceleration time?
The internet is like a ‘comedy book’ with answers to these
questions:
Feynman's answer to the question:
“An electron emits an ordinary photon in response to being
struck by a reverse-time ("advanced") photon that has traveled
backward in time from some point in the future.”Some point in the future"
could range from femtoseconds (or less) away up to billions of years in the
future. The real photon that is emitted in response to the recoil-inducing,
backwards-in-time photon travels along the classical time path as a normal or
"retarded" photon (no I did not make that up), and eventually strikes
the very same target that emitted the advanced photon sometime in the future.”
Another scientist said:
“The opposite happens when an electron emits a photon. The
photon is not selected from a "well" of photons living in the atom;
it is created instantaneously out of the vacuum. The electron in the high
energy level is instantly converted into a lower energy-level electron and a
photon. There is no in-between state where the photon is being constructed. It
instantly pops into existance.”
277. I am the first who discovered at what velocity an
electron emits a photon
278. I am the first who discovered because the electron is a
photon around Dark Matter, the electron receives and emits photons with the
speed of light
No comments:
Post a Comment
Note: Only a member of this blog may post a comment.