Hello Gordon,
Welcome urging of Jackson/Bollinger/Traill has inspired a read of your essay. I've left comments on their threads.
We share a background in mechanical engineering.
First thought on looking at your abstract is the use of the word 'true' to describe your understanding. Has me laughing a little. Dangerous dance, that one. Good luck with it, hope to find it so at the end of this read.
Hadn't seen 'premiss' used before, was familiar with premise. Googled a little, tried to sort out finer shade of meaning, but i'm not particularly adept at that sort of thing and settled for liking your version, as it gives one the permission to be right or wrong, is in accord with much remaining to be done. And agree we are surely at the beginning. Feeling of sorta arrogant presumption in premise vs premiss. Tho premiss is almost too negative imo.
Regarding your TOC, i looked in some detail at first 3 sections, browsed 4-9, and looked at 10-17 in some depth at several places. Took a break, fed the woodstove, coming back to it with some vague idea of where it's going, tho short term memory is not adequate for complexity you present in a single pass.
1.1. thanks for the numbering. excellent practice. saw this also with Bollinger. very helpful for commenting.
1.2 agree. gotta do the math. that's what keeps one on the path, the reality check.
1.3.i what you describe here i would call the geometric wavefunction.
1.3.ii and here you describe geometric wavefunction interactions, as modeled for instance by the geometric product of geometric Clifford algebra. Please notice the emphasis on geometry (need fields as well).
1.3.iii yes. at the most fundamental wavefunction level reality can be described by interactions of the fundamental geometric objects (point, line, plane, and volume elements) of 3D Clifford algebra, endowed with topologically appropriate quantized electric and magnetic fields. Any brand of realism that negates/neglects this can be rejected as naive.
1.3.iv hmmmm. this is where it gets interesting. It seems to me that at this point one has to clearly define 'real'. Wish you woulda done that for us. Or perhaps you do in what follows. Nice short clear definition here would be welcome.
1.4 simplest thing for me seems to be to equate beable with wavefunction. How does that sit with you? And here would like more precise definition of cause and effect.
2. appears to be mostly a lead-in to EPR
3-9 the details.
10. imo to define and understand entanglement one has to understand the wavefunction and its interactions. This line of inquiry has been frustrated foreffingever by point particle quark and lepton models, with all those unintuitive 'internal' attributes tied up in symmetry groups and higher dimensions, giggle dizzy daffy stuff imo.
I like your logic approach to the problem, in principle should be clear of inadequacies of particle theory models (renormalization comes to mind), but lacks the intuitive advantage of simple geometric electromagnetic wavefunction model in 3D space.
Conventional Hamiltonian and Lagrangian approaches look at conservation of energy and its flow between kinetic and potential, but they don't look at what governs that flow, the impedances.
Trumpet player needs that horn to mechanically impedance match his lips to the room, to let us feel the force of his emotion and intellect. Computer at which i sit is electrically impedance matched at almost gazillion nodes. Otherwise it could not do what it does. Impdances govern amplitude and phase of the flow of energy.
In the world of the quantum impedances have been overlooked for an odd mix of reasons. The possibility that our web of Indra is woven together via the natural quantized impedance matches of protons, neutrons, and electrons, and photons? That this is what permits the entanglement that defines a quantum system and permits higher levels of emergence?
What governs the flow of energy in such systems are quantized impedances.
What set Michaele and i upon this path is mechanical impedances. When one does an arguably logically rigorous analysis of the two body problem, what emerges is a version of Mach's principle that yields a number for mechanical impedance. All massive particles have mechanical impedances, quantized by their mass, their Compton wavelengths.
Modeling a particle as an electromechanical oscillator then yields the conversion to electrial impedances. This approach can be applied to geometric wavefunction interactions.
So now we come to EPR. Quantized impedances are either scale dependent or scale invariant. The one exception (afaik) is the photon, which has both scale invariant far field and scale dependent near field.
Invariant impedances are inverse square. Associated forces can do no work, resultant motion is orthogonal to direction of applied force. All they can do is communicate quantum phase, not a single measurement observable. They maintain the phase coherent entanglement of the photon pair emerging from electron-positron annihilation, a coherence pre-existing in the eplus-eminus pair, phase rotating clockwise in the one and ccw in the other.
Each carries phase information from the annihilation in the form of their superposition, energy passing back and forth between the phases via Maxwell. Talk by Vaidman at 2013 Rochester quantum optics/information conference described in detail an experiment their group did proving existence of Wheeler and Feynman's backward travelling phase via 'weak measurement'.
In any case to understand wavefunction coherence, how this defines boundary of a quantum system, the role of quantum phase (tagging it as 'gauge' out of respect for Weyl's earlier mistake was a horrible pitfall for all that followed, made the obvious obscure) in entanglement both local and non-local,...
To have the geometric wavefunction interaction model that Michaele and i present subject to the intense logical scrutiny shown in your essay would be a most welcome opportunity. How do we build that bridge? Your formalism looks pretty formidable to me? Do you have any sense of where our gwi model is coming from? Wondering how much interest the Bollinger/Jackson/Traill/Simpson/... cabal might show in such an approach.
Agree at some not very complete comprehension level with most of what you present up to section 17.
regarding that section, imo such a discussion requires more precise treatment of reality/causality/observables/emergence/... in the context of the wavefunction and wavefunction interactions.
would like to understand more of what you're doing. Is it possible to continue these threads after the 26th? Only the possibility of rating expires at that time? Read somewhere in a comment that a few days ago someone commented on an essay from 2013, that commenting was still open there with his contributor code. Bug or feature of fqxi interface?