The mnp Model is now a collection of the numerous possibilities for structural models based on tiny entities acting only over very short distances. Some of the discoveries and inventions and re-discoveries in the Model may be useful in other “structural theories” such as preon models, string theory, and quantum loop theory. See Mental Leaps Required in a Structural Model.
To differentiate the various possibilities within the mnp Model, the author will now start naming the alternates for convenience of thought and discussion. The early mnp Ring Model is now deprecated, but led to many useful insights.
The mnp Coiled Filament Model sees the basic entities form filaments that coil. The Coiled Filament Model suggests that the length of the filaments is set by the coil's progress over the logical surface of the electron or positron.
The mnp Strand Model sees filaments make up strands that are all the same length and suggests that the configuration of the six filament strands leads to different charges and different sphere sizes and different masses for “elementary” particles by recruitment of the basic entities that make up photons, magnetic fields, and most gravitational fields.
The new mnp Loop Model sees the filament loops as all the same length/size/mass, and suggests that the many different particle sizes do not recruit basic entities to be filaments that happen to be the same length, but are combinations of pre-existing filament loops. The filament loops would probably be recruited in very dense regions of the universe, perhaps before electrons and positrons formed or as part of electron and positron formation. Certainly loops would exist in their quantum length before the larger particles formed.
Interactions of particles could be a matter of snipping and splicing coils, which would suggest electrons may eventually form one long filament in a 6 sided strand. This suggestion is unlikely due to the observed quantization of particles and the hypothesized quantization of loops. More likely, interactions of particles is a matter of removing and recombining filament loops in the strands that form the structural basis of particles. The author is reluctant to call this version the mnp Quantum Loop Model, though the phrase would be accurate.
Questions raised by the mnp Loop Model include:
Does electron/positron annihilation destroy the loops or just unravel both of the strands of six loops completely, leaving twelve filament loops of charge structure?
Are loose filament loops a better image of dark matter than loose linear filaments? Both images are better than loose tiny entities of charge material, which are basic constituents of fields as well as filaments. Such loops would probably travel less than uni-directional filaments, and so may cluster closer to masses than filaments would. Dark energy might then be the tiny entities that form magnetic fields and light, recruited by the loose loops. Or dark energy may be filaments of the tiny entities that are not organized in pairs to be photons and travel as light. Both images are better than loose tiny entities of magnetic material, which are the basic entities of fields and photons.
If loose filament loops allow for “spontaneous” change or creation of particles, is the Model more attractive to modern theory by making such events more likely than pure creation of particles from the very basic three entities in the Model?
Conservation of Charge Material in the mnp Model
Beyond the charge conservation of the Standard Model, the mnp Model proposes that charge material is conserved, so that the charge material in neutrinos is maintained over time as is the charge material in the neutral leptons, mesons and big bosons. The good news: material is available for recruitment. The bad news: material is no longer being created or destroyed. If charge shows up somewhere, the material had been in that region and close enough to arrive at the speed of light or less.
This conservative attitude, keeping track of the charge material in a reaction, informed much of the particle speculations of the early Ring versions of the Model and much of the particle speculations in the Unsolved Issues appendix and the Ancillary appendix. For example, if muons (or some muons) can become two electrons and a positron, even if rarely, those muons would have enough charge material (eighteen loops) to form the three leptons. Particle spin is seen as less conserved than charge material, though if opposite spin is needed for electrons and positrons to annihilate, then spin gets to come along for the conservative ride.
Summary - the mnp Loop Model
The Loop variant of the mnp Model offers advantages and disadvantages as a proto-theory. Quantization makes logical sense, but “kicks the can down the road” by postponing the decision on why 85.17KEv/c^2 should be the mass of a loop. A defensible model could be built around such a concept, and quantization may have occurred when electrons and positrons first formed, or when “tiny” electrons and positrons of a single filament formed at the ultra high densities of the early universe. For a while in the expansion of the early universe, the compactness of electrons and positrons may have been favored, with the quarks and larger hadrons forming later. The tendency of charge material to stay in a filament would be a very strong combination of the two basic alignment tendencies in the mnp Model, which would explain the persistence of the loops since their formation.
Since the third type of entity in the mnp Model, the mediator or m, does not have the two types of alignment working along the same axis, the filaments formed will not be nearly as strong and so can form light and fields but not the basic structure for matter.
Loopier and Loopier
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