Ronald Racicot's comment to me on his Paper's page:
Dear Paul N. Butler;
Thank you for your thoughts and ideas.
I have to admit that it's difficult for me to fully understand your terminology and how your ideas mesh with current quantum mechanics terminology and theories.
You seem to be suggesting that the internal structure and dynamics of any given quantum particle is completely deterministic and that if one could know the position and relationship of all of the internal building blocks of such a particle, then the results of interactions with other knowable particles would be completely deterministic, predictable and even controllable, perhaps. This is a fascinating idea! Schrodinger's wave equation probability theory could then be replaced with a new deterministic theory.
For the time being, I can't see beyond quantum particle interactions being probabilistic as the wave equation implies.
I look forward to reading more about your findings and ideas.
Ron Racicot
My comment to Ronald on his paper's page:
Dear Ronald,
You are welcome.
Although I tried to stay with current terminology as much as possible, some things, such as the sub-energy particles that make up the structures of fields are generally not currently known by man, so I had to generate a name for them. Many years ago, when particle interaction data showed that matter particles could be changed into energy photons and vice versa; two things became very apparent to me. The first is that if either one can be converted into the other one, they both must be composed of the same basic substance, so that each one would contain everything that was necessary to make the other one. The second is that since an energy photon travels at the speed of light and contains only a dynamic mass effect that increases with an increase in frequency while a matter particle has a large rest mass effect and can effectively stand still, this basic substance had to be somehow structurally stored differently in one compared to the other to generate the difference in their observed actions. The data also showed that they could both be converted to basic linear or angular motions. Since of the three, a basic motion is the simplest structure I came to the conclusion that motion is the basic substance from which they are all composed. This did not seem reasonable at first because we are used to thinking of motion as a property of something else, such as a moving car, etc., but when I looked into motion interactions I saw that although the individual objects that were in motion could be stopped or speeded up, etc.by an interaction, the total amount of motion is always conserved. This means that the motion is an entity in itself and is just joined to other objects, which causes them to move with the motion that is attached to them. Interactions between objects just transferred some of that substance from one object to another one. If motions were just properties of an object and not an existing entity of its own, it would be reasonable to expect that if two equal mass cars each traveled toward the other at 50 miles per hour, when they met their equal and opposite motions would just cancel each other out and they would just both come to a stop when they touched each other. Motions do not cancel each other, however. One may increase while another decreases, but when you add up the total amount it is always conserved. I have since found out that total motion is the only thing that is conserved, with the possible exception of the total number of motions, which may also be conserved, but that is not as easily understandable on the surface.
When I began to look into the structure of simple motions, I found that simple motion particles that travel in some direction at the speed of light or less, but do not have a wave function that operates at ninety degrees from their direction of travel could be what fields are composed of. I called these sub-energy particles because they are at the level of structure that comes below the structure of an energy photon. An energy photon has a linear motion in some direction at the speed of light, but it also contains a cyclical motion that operates at ninety degrees to that linear motion. Cyclical motions generally must travel in one direction for some distance and then must reverse their direction and travel the same amount in the opposite direction and then reverse their direction again and continue this cycle in all dimensions that the cyclical motion takes part in. A reversal of motion can only result from an interaction with some entity. The most obvious way of producing this motion reversal was to consider that the motion that generates the wave function would move back and forth in a very small fourth dimension. It would travel to one end of this dimension and then it would interact with the barrier at the end of the dimension, which would change its direction, but would not change it speed of motion because the barrier could not transfer it. This dimension would be connected to the lower three dimensions in the same way that they are connected to each other with a couple of exceptions. First, motion could not pass between the lower three dimensions to the fourth dimension unless the composite three dimensional speed is greater than the speed of light. If a sub-energy particle receives an increase in its linear motion that would cause it to go faster than the speed of light that excess motion is transferred to its fourth dimensional motion and it then gains the frequency, wavelength, and dynamic mass effects that make it become an energy photon. The greater amount of motion that is transferred to the fourth dimension, the higher is the frequency, the shorter is the wavelength, and the greater is the photon's dynamic mass effect. This is because the greater the motion, the faster it can complete a cycle from one end of the fourth dimension to the other and back again, thus increasing its frequency, which means that it will travel a shorter distance in its linear motion direction during its quicker cycle, thus shortening its wavelength, and the greater the motion, the more motion that can be transferred to another object during an interaction, thereby increasing its mass effect. There are other details, but that should give a good basic understanding of how an energy photon works and why they all travel at the same speed of light. A matter particle requires an additional motion in an additional fifth dimension. In the same way that there is a transfer threshold level of the speed of light to enable motion to transfer from the lower three dimensions to the fourth dimension, there is also a similar transfer threshold to allow transfer of motion from the fourth dimension to the fifth dimension, but unlike the automatic transfer that takes place at the speed of light level to the fourth dimension, when an energy photon contains enough energy to transfer to the fifth dimension it must also come in contact with a proper angular motion component to enable the transfer. That is why a gamma ray photon can remain a photon even though it contains enough fourth dimensional motion to make an electron/positron pair (a matter particle and its antimatter particle). If it travels close enough to an atom to receive the necessary angular motion from the atom's field structure it can then be converted, as an example. The fifth dimensional motion interfaces differently with the lower three dimensions, such that it transfers motion to each of those three dimensions in sequence with a ninety degree overlap between the first and second, the second and third, and the third and the first dimensions. The motion transfer to each of the lower three dimensions starts at a zero level and increases to a maximum level and then decreases back to zero over time. This causes the energy photon to take a three dimensional curved path that encloses back upon itself and it continues to cycle through this path. The path effectively becomes a matter particle. When the motion travels into the lower three dimensions it would cause the photon in the matter particle to travel faster than the speed of light, so the excess motion is transferred to its fourth dimensional motion and if the fourth dimensional wavelength fits properly in the enclosed path, the proper angular motion component exists to allow the motion to travel back into the fifth dimension and the inter-dimensional motion transfer cycle is complete. The only thing that survives the motion transfer is the angular directional changes to the photon's linear motion path that generates its curved enclosed cyclical path. The great amount of continual angular motion that is generated creates the matter particle's rest mass effect. Since its enclosed path is three dimensional the mass effect is the same in all three dimensions. The motion of the matter particle around its three dimensional path causes it to entrain sub-energy particles to travel through it from an input point on one side to an output point on the other side of the path, but because its motion continues to travel around the path the input and output points of sub-energy flow through the matter particle are also continually changing position on that path. In addition to this the sub-energy flow is modulated from zero to a maximum and back to zero by the fourth dimensional wave function of the particle. This is the matter particle's internal field structure and it generally keeps the particles in the nucleus of the atom from interacting directly with each other. The continual motion of the sub-energy input and output around the particle's enclosed path and the modulation of the sub-energy flow both together generate an external sub-energy field in the form of concentric spheres of sub-energy particles with each sphere varying in sub-energy density from zero to a maximum density and then back to zero. The inner sphere repels the particles in the nucleus and thus contains them in the atomic structure. An electron is attracted to the spheres if it gets close enough to them, which causes it to travel toward the nucleus of the atom. As it travels through the spheres it begins to get attracted to the spheres that are behind it, which it has already traveled through. When the attraction from both directions becomes equal, the electron is in its stable position in the atomic structure. Within each sphere the sub-energy particles travel around the sphere from the input to the sphere to the output of the sphere. This sub-energy flow servos the speed of the electron as it travels around the nucleus. That gives a very basic look at the structure of basic particles. I tried to stay as much as I could with commonly used words, but may not have done it perfectly and some things such as the sub-energy particles are not currently understood to exist by the scientific community, so I had to give them a name to talk about them. I hope it is understandable to you. As I mentioned earlier, my various papers on this site's contests give some more details.
You are pretty close. When two like particles approach each other to an interaction, if their level of linear motion toward each other is low enough the interaction takes place only between their external sub-energy fields. If it is great enough, they pass through their external sub-energy fields and if the motion level is not too great the particles can be joined together to produce a nucleus as their external fields join together into a single field structure with a single inner sphere that holds them together in the nucleus. If the motion level is still greater the particle's internal fields interact with each other. If the motion level is great enough the particle's internal fields are breached and the particle's internal motions can then interact directly. This can result in the destruction of one or both of the original particles. The output results of the interactions are dependent on the conditions of the particle's motions at the point of interaction. Generally, there are a number of ranges of proximity that determine what results can occur and the size of each range compared to the others determines the probability of the occurrence of each outcome. It is not time for me to go into more detail about that yet, however. If a way is devised to observe the particles as they approach each other or the ability to control and sync the particle's internal motions with each other before the interaction is developed, such that it is known what those conditions are at the point of interaction, then the actual outcome of the interaction can be determined or controlled. These things are possible, but these abilities require several advancements that I cannot give. Man must develop these things first. You are right that it is all deterministic. Man just does not yet have the ability to make the observations or to generate the control mechanisms to observe that yet. I have given a model though that gives an explanation of how things work, which is the first step in the process. When the observation and/or control mechanisms are developed, all of the quantum uncertainty will be gone along with all of the gibberish that has been generated in connection to it. I hope this helps.
Sincerely,
Paul