You said, “Perhaps (in a very circumventive way) you're on to something.”
I say, Yes! and all I need is help from experts, rather than arguments against the details.
You said, For collections of molecules to all move along from point to point in the correct direction (as my fingers now move across this keypad, with every atom choreographed precisely) all the points my atoms interact with must all allow my atoms to follow the same path - or else whenever I tried to move I'd disintegrate! This implies that my atoms actually 'control' the direction of flow. This implies that (unawares to me) I have complete control over the fabric of space in which I exist! The macro masters the micro!
When I came up with that picture in about 1984, I knew it couldn't be exactly right for the same reason you say, "How do the molecules choreograph themselves?" Although I knew the basic idea was right.
You asked, What is space made of? What gets denser? Since we haven't gotten past the idea of physical strings of matter that are like tight rubber bands or violin strings, I'll call them strings, and say that space forms like a 3-dimensional elastic macramé stretching outward. If the strings are shorter, the space is denser and objects move slower.
Another point you made was, tetrahedrons can't be right because they are too simple. Agreed. In one of my posts I say how the strings are constantly changing in length. The six dimensions of tetrahedron space is able to change, which produces a space with a total of 16 string dimensions. That’s adequately complex, so we aren't stuck in a world of tetrahedrons.
How do objects and molecules stay together and choreograph themselves through a space made of matter? Imagine cutting a flat piece of string fabric out of space. It takes two flat pieces of leather to make a baseball. But the shape of the two pieces of the baseball are precise and intricately joined, which is hard to come up with in nature. The least number of simple pieces you can use make a hollow sphere are three. And we know three quarks make a proton.
Imagine three pieces of flat space fabric, quarks. When you take a section of triangular strings out of expanding space, it immediately becomes a denser chip, a flat chip. Take three of those flat chips and put them together; it’s a proton, a dense particle of contracted strings, but it’s hollow. The strings, in triangles, are all over the surface. Imagine electrons (which aren’t really electrons but vibrating strings) traveling along the strings over the surface. The strings are vibrating mass, and the moving mass causes the proton to inflate like a balloon. It's a brane. You could have several protons forming one brane. All of their quarks arrange themselves like panels on a soccer ball, so a few protons form one single bane. They also form in layers or shells, which we call energy shells of the molecule. When the electron is on the brane, it vibrates all the strings of the brane and the electron loses its identity, thus you can’t know where it is, but you can pick one point and recapture all the energy of the electron and send it out along the strings of space.
So molecules are neatly organized membranes, separate from the dimensions of space. That’s how they stay together. How do they move through space?
Remember, we are moving though a matter field, not through empty space.
If molecules are made out of the same fabric as space, then molecules would suck up the space around them in order to form. Like building a sand castle. You have to dig a depression around the castle to get enough sand to build the castle. If you just sweep it all in and build the castle, and if the sand was perfectly flat, then water would run downhill into the castle. If a molecule sucks up space, that makes the space immediately around the molecule less dense, and things would tend to fall into it. That’s what I think is the operating principle behind gravity.
But it’s more complex. Quarks were cut neatly from space at an early stage in the expansion of the space we are in. The quarks organized into hollow protons. The surface of the hollow protons became excited and the vibrating strings inflated the proton. But they are a brane, totally separate from the dimensions of space. What connects the protons to space? The only candidate is neutrons. A wave in the ocean is a mound of water preceded and followed by a trough. A neutron is like a wave in space. It moves like a wave. The strings of the neutron don’t move, but like molecules of water, the wave moves and the individual molecules of water stay put. A neutron moves like a wave. As it approaches a string that is in space, the string expands becoming part of a trough. Then the string gets compressed as it becomes part of the neutron, and then the neutron passes and the string expands to form another trough or gravity well, and then returns slowly to normal.
The strings in the proton are more densely packed than the strings in space. The strings of the neutron are connected to space but they match the density of the proton just under the surface of the proton. So electrons, which are trapped on the surface of the brane can go down into the neutron and then up into space. Since the strings of space around the neutron and the strings of the proton are approximately the same length, electrons can pass from the skin of the proton into the neutron, and then to the strings of space; and the vibrating strings in the protons can throw off many photons using the same process. The proton is not connected to space, but the neutron is.
I’ve tried to give a sketchy picture, but there’s an experiment here. I'm saying only neutrons create the conditions for gravity. The idea is that protons are hollow branes disconnected from space, and neutrons interact with space and generate gravity. Therefore, according to my idea, a hydrogen cloud in a nebula would not generate gravity. Nebulas with their random shapes don’t appear to have gravity in them. If we ask the question, “How much gravity do giant hydrogen clouds have?” And if the answer is, “Less than their mass would suggest.” We have the seed of a major idea.
