Gravity is Largely a Conversion of Molecular & Atomic Vibrations into Vector Acceleration
Reduced Space in Mass Fields
There is space contraction exactly proportional (i believe) to time dilation as evidenced by the Sun's internal rotation speed being faster than its external rotation speed.
This likely means light/EM makes the same external frame geometric progress regardless of a mass field or not.
That space differential may at some point be determined by very fine precision measurement.
Vibrations Converted to Vector Inertia/Acceleration
Imagine if one will a perfectly aligned line of particles.
Put them in a tube if one likes.
They bounce off of one another in perfect synchonity.
Back and forth in perfect periocity.
(In reality the outer bounds would be contained by electro-polar forces.)
Now let's put this perfect stack/line/tube of particles in mass field with its tidal gradient.
The particles that move to the inward side of the external mass field will move more slowly due to time dilation.
That means when they bounce back outward it will be a little later in time so their collision with the next outer particle will happen closer to the external mass field's center,
but the recoil towards the external mass field will have the same energy as always driving its center of vibration inward.
This creates a sort of 'inchworn' 'slinky' effect shifting the stack/tube (object) of particles' center of mass closer to the external mass field's center.
A shifting, moving center of mass is inertial vector energy,
and cumulatively it's acceleration.
I believe that is pretty much the defining element of gravity.
It's a sinuous, weak yet cumulative effect.
It does raise questions.
1) How to account for some conversion of energy?
2) Would that mean temperature might have some effect on the gravitational effect?
To Q1
I have proposed space contraction happens in exact proportion to time dilation.
That space contraction limits the directional range of movement slightly.
It may be that the vibrational energy that would have gone in that now absent direction corresponds to the vector movement energy.
To Q2
This idea really challenges conventional thinking.
Even though it's a miniscule fraction of the heat/vibration energy of a hotter object that greater percussive energy does seem it would cause the shift of mass inward to occur with more rapidity.
If so it would mesh with my conceptualization of Q1.
The vibrational energy lost due to a direction absence is a greater energy in a hotter object.
So the 'acid test' for my thinking is not dropping a lighter or heavier object on the Moon's vacuum surface,
but dropping a very hot and very cold object in the surface vacuum of the Moon.
That experiment may kill this whole theory.
If some object were at absolute zero by this rationale there could be no vibrational 'inchworning' taking place, no 'falling'.
Only warmer external bodies could respond to the absolute zero body's mass.
One sided 'gravity' if you will.
Does a body at absolute zero become weightless?
Or does an object nearing absolute zero become measurably lighter?
That would be an available experiment.
Reduced Space in Mass Fields
There is space contraction exactly proportional (i believe) to time dilation as evidenced by the Sun's internal rotation speed being faster than its external rotation speed.
This likely means light/EM makes the same external frame geometric progress regardless of a mass field or not.
That space differential may at some point be determined by very fine precision measurement.
Vibrations Converted to Vector Inertia/Acceleration
Imagine if one will a perfectly aligned line of particles.
Put them in a tube if one likes.
They bounce off of one another in perfect synchonity.
Back and forth in perfect periocity.
(In reality the outer bounds would be contained by electro-polar forces.)
Now let's put this perfect stack/line/tube of particles in mass field with its tidal gradient.
The particles that move to the inward side of the external mass field will move more slowly due to time dilation.
That means when they bounce back outward it will be a little later in time so their collision with the next outer particle will happen closer to the external mass field's center,
but the recoil towards the external mass field will have the same energy as always driving its center of vibration inward.
This creates a sort of 'inchworn' 'slinky' effect shifting the stack/tube (object) of particles' center of mass closer to the external mass field's center.
A shifting, moving center of mass is inertial vector energy,
and cumulatively it's acceleration.
I believe that is pretty much the defining element of gravity.
It's a sinuous, weak yet cumulative effect.
It does raise questions.
1) How to account for some conversion of energy?
2) Would that mean temperature might have some effect on the gravitational effect?
To Q1
I have proposed space contraction happens in exact proportion to time dilation.
That space contraction limits the directional range of movement slightly.
It may be that the vibrational energy that would have gone in that now absent direction corresponds to the vector movement energy.
To Q2
This idea really challenges conventional thinking.
Even though it's a miniscule fraction of the heat/vibration energy of a hotter object that greater percussive energy does seem it would cause the shift of mass inward to occur with more rapidity.
If so it would mesh with my conceptualization of Q1.
The vibrational energy lost due to a direction absence is a greater energy in a hotter object.
So the 'acid test' for my thinking is not dropping a lighter or heavier object on the Moon's vacuum surface,
but dropping a very hot and very cold object in the surface vacuum of the Moon.
That experiment may kill this whole theory.
If some object were at absolute zero by this rationale there could be no vibrational 'inchworning' taking place, no 'falling'.
Only warmer external bodies could respond to the absolute zero body's mass.
One sided 'gravity' if you will.
Does a body at absolute zero become weightless?
Or does an object nearing absolute zero become measurably lighter?
That would be an available experiment.