Dear James,
Thank You for your interest and your questions. Please call me "Ray".
I found what I think is an interesting direct comparison between the Tetrahedral Symmetry Classes of Experimental Physical Chemistry/ Solid State Physics versus the Georgi-Glashow SU(5) Boson GUT of Theoretical Particle Physics (Equation 1). This Georgi-Glashow SU(5) Boson GUT contains the gluons of Color Theory, the photon of Quantum Electrodynamics (basically a quantized version of Maxwell's Equations of Electromagnetism), the left-handed Weak force of the Standard Model, and some hypothetical X and Y bosons. This part of the paper is "old-school" theory, and we normally expect the X and Y bosons to be quite massive or else we have to worry about proton decay.
Having received my Doctorate in Particle Physics Phenomenology, I can't help but build bigger (and hopefully better) models. It occurred to me that if the Tetrahedral Symmetry Classes are relevant, then the Octahedral and/ or Icosahedral Symmetries (which are equally founded in Experimental Physical Chemistry/ Solid State Physics) might also be relevant, so I pushed that extrapolation to its natural limit. Ultimately, this led to an SU(11) Yang-Mills Boson GUT (Equation 3) that contains a framework capable of supporting a Quantum Gravity Theory in addition to the rest of the Standard Model of Particle Physics. Along the way, I introduce a couple of new short-ranged forces: Hyperflavor (similar to a more massive Weak force, but with left-, right- and mixed-handed interactions rather than exclusively left-handed interactions), and WIMP-Gravity (similar to massive gravitons that might imply "imaginary mass" = tachyons).
The K12' lattice is a 12 dimensional extrapolation of the Exceptional Groups (G2, F4, E8,...). I called it E12 originally (because of similarities with E8xH4), but the mathematicians did not appreciate my cavalier definitions. So I renamed it K12' because of similarities with the Coxeter-Todd K12 lattice. K12' is my favorite model, but I am playing with other ideas as well. K12' is also a shallow hole in the 24 dimensional Leech lattice, and has an interesting decay channel that breaks into a Super Yang-Mills Boson GUT plus an E8 Gosset lattice Fermion GUT. I call it a TOE because it contains a framework capable of containing all Bosons (gluons, photon, W, Z, graviton, Hyperflavor, WIMP-Gravitation, Generatons, etc.) and all Fermions (up, down, charm, strange, top, bottom, electron, muon, tauon, all neutrinos, all colors, left- and right-handed spins, plus some weird tachyons). I have not yet written all of the Feynman diagrams and Lagrangian components. I think I understand the Supersymmetric extension of this model (In my "A Case Study 3.3.pdf" paper), but Lawrence Crowell and I are still bouncing ideas off of each other. It is a work in progress...
I equate new force charges (or rank or folders) with new dimensions. And I equate broken symmetries with dimensional collapse. If K12' was a 12 dimensional lattice, but we now live in a 3+1 dimensional (non-lattice) Universe, then we had 8 broken symmetries, Hyperspace is the remnants of a broken E8 Gosset lattice, and Spacetime is the remnants of a broken H4 lattice (which comes full-circle back to the icosahedron mentioned above).
K12' is a finite model that is closely related to Mohamed El Naschie's E-Infinity - the primary difference being a fractal approximation. Perhaps the difference between a finite K12' and a nearly-infinite Universe is a simple fractal approximation.
Jason wants to create a hyperdrive, and has been having many discussions as to how we might get into hyperspace.
I hope I have clarified this paper, and why I consider it "A Geometrical Approach Towards A TOE". I don't of this as the Prime Mover/ Prime Cause so much as I think of this as a geometrical Prime Theory that the Prime Mover/ Prime Cause may have manipulated.
Have Fun!
Ray Munroe