[Richard777 (OP)]

A “fundamental emitter” may be compared to a “light sponge”, it contains “photons” (or the energy equivalent of photons). If it is “squeezed” (stressed) the emitter will reduce in size (like a squeezed sponge) and some photons will be “squeezed out” (emitted).

There are two types of stress: pressure and shear. Both types are required to “activate” (squeeze) the emitter. Pressure is associated with a distribution of force over a surface area, and shear is associated with a sectional area.

Assume the emitter is spherical, while under stress it gets smaller, so the radius is changing. The instantaneous rate of change of the radius must have an exact speed: one quarter of the light constant.

The emitter may be “inactive” (not radiating) having an “inactive radius” (initial radius). If it is radiating, then it has an “active radius”. The “radius ratio” (active/inactive) must agree with length contraction.

Stress may be represented as a ratio of force and area. Force is represented as a vector, and area may also be represented as a vector giving stress as a tensor. It is convenient to simplify stress, representing it as a vector (in 3D).

If four “radiant rules” are true, then the emitter activates (shrinks) releasing photons with a “brightness” which may be calculated.

Does an active emitter shrink?
See attachment for some math.

[Bored chemist]

Have you tried measuring a light bulb?

[Petrochemicals]

A “fundamental emitter” may be compared to a “light sponge”, it contains “photons” (or the energy equivalent of photons). If it is “squeezed” (stressed) the emitter will reduce in size (like a squeezed sponge) and some photons will be “squeezed out” (emitted).

There are two types of stress: pressure and shear. Both types are required to “activate” (squeeze) the emitter. Pressure is associated with a distribution of force over a surface area, and shear is associated with a sectional area.

Assume the emitter is spherical, while under stress it gets smaller, so the radius is changing. The instantaneous rate of change of the radius must have an exact speed: one quarter of the light constant.

The emitter may be “inactive” (not radiating) having an “inactive radius” (initial radius). If it is radiating, then it has an “active radius”. The “radius ratio” (active/inactive) must agree with length contraction.

Stress may be represented as a ratio of force and area. Force is represented as a vector, and area may also be represented as a vector giving stress as a tensor. It is convenient to simplify stress, representing it as a vector (in 3D).

If four “radiant rules” are true, then the emitter activates (shrinks) releasing photons with a “brightness” which may be calculated.

Does an active emitter shrink?
See attachment for some math.

Yea, when photons are emitted, the electron drops down a shell level.

[evan_au]

When the light bulb filament cools down, it shrinks.
- When it heats up, the filament gets bigger
- While it is radiating (heat in = heat out), it stays the same size
- But this is just thermal expansion

In an old-style fluorescent lamp, the mercury vapor takes up considerably less space when the lamp cools down, because it (mostly) condenses to a droplet of liquid.

[Hayseed]

It depends on what kind of emitter.  X-ray emission is different then light emission and different than radio emission.

Isolated charge can only emit x-ray and higher.  The emission ALWAYS EXPANDS the particle,.........even under acceleration, with a rising chirp........each little component chirp........is an expansion of the particle.  Even though after the completed chirp......the particle is smaller.

Frequencies from x-ray down into the THz region.....require dipoles, atoms and molecules.  These structures can emit with no change in physical size.  And no change in energy levels.  They can also change size and energy levels with emission too.  It depends on the mode.  Because these structures have "radio repeater" properties.  They can be charged....to just under the energy level setpoint.......and immediately re-emit.  The emission frequency, can be different than the inducement frequency.  Allowing the structure to remain the same color.

Then there is radio.  Antennas do not shrink with emission.  Antenna emission comes from a current field.  The current field is dis-associated quickly, allowing the field to propagate.

Fundamental matter always shrinks upon absorption(energy input) and expands upon emission(energy output).  A particle can only spin at certain rates.  If you charge it to just under the next level, it will throw that energy back out with emission, and reset to previous expanded stable level.

[alancalverd]

Brilliant! You should write political manifestoes, New Wave Alternative Therapy texts, or books on philosophy.

[Hayseed]

It's already been done.  Not one of my comments on the site has been "new" or unknown......and my comments are not authored by me.

Watch a circuit dipped in ferrofluids.  Watch a moon travel thru a debris field.  Then read Parson's Magneton.

The Parson's model was developed before the existence of neutrons and anti-matter.  And before Einsteins pronouncement that emission is discreet and intermittent.

And this model continues to give a mechanical explanation of all........including gravity and entanglement.

Modern science can not explain reality, but the history of physics can.

[yor_on]

Eh, PC, the electron is considered to be a point particle :)