Encodement Radiation

 In a way, one could call neutrinos, "encodement radiation." TO BE CONTINUED! SAM ROACH.

Non Abelian-Related physical propagation of topological phenomena, may often tend to be considered, as being one of enfoldment along the developing Rarita Structure. Whereas; Abelian-Related physical propagation of topological phenomena, may often tend to be considered, as being one of bending along the developing Rarita Structure. 

Energy offshoots from spurious electromotive charge, tends to be eminently corroborative with Tesla Energy. 

When the i*PI(Del)Action is coupled with anharmonic angular frequency, this tends to form spurious charge. When such a product of the i*PI(Del) Action with anharmonic angular frequency, is randomly delineated, in some sort of a strewn manner, over time, this will spontaneously tend to form a given arbitrary set of charged energy offshoots, which will thereby behave, as Tesla Energy. 

Neutrino-Related Frequency -- Nijenhuis Wave-Tug

 When neutrino-related frequency, is to bear the general workings, of the gauged-action, of a physically applicable Nijenhuis wave-tug, this may often tend to work to help facilitate, the eminent encodement, of the spontaneous incursion, of additive spin-orbital tensors, as impelled upon the kinematic stratum, of a set, of one or more directly associated respective Hamiltonian Operators. TO BE CONTINUED! SINCERELY, SAM ROACH.

A Little About Substringular-Based Traits

What ramifications as to energy flow are due to permutations in the radial tensors of a set of one and two-dimensional strings that quantify to form the phenomena of a trait which is covariant with another one?  A sequence of one and two-dimensional superstrings wobble in a region which centralizes locally to their respective neighborhoods as a kinematic eigenmatrix of reiterations which expel harmonic wave residue.  This happens after the convergence of the series output of the related superstrings, of which delineates homotopic residue.  The ghost residue renormalizes in conjunction with the directly related point commutators which act as eigenstates to the Imaginary radial tensors of the transversal anharmonic nodal indices.  This bears Yakawa Couplings with the mentioned superstrings' Fock Space.  As these strings wobble as described, the anharmonic node indices converge upon a harmonic wave delineation at a discrete measure in the substringular, bearing an instanton interaction of a discrete metric.  This said metric acts to Dirac the quaternionic reiterative strings' metric, while then sequentially compactifying to a euclidean measure, after which stretching the relatively local strings which are associated with that partial encodement of the associated given covariant trait.  As the metric of the wobbling strings relapses, the Poincaire generators, which distribute the partial integration of such associated parameters, varies in terms of each separate variable of the given trait.  This happens in order to:  1)  Get a given substringular trait to differentiate as a whole in a Fourier manner relative to another given substringular trait.;  & 2)  To gen a substringular association to act as a strung-out substrate that normalizes the correlative critical cusps of each jointal singularity that was previously seperated by the harmonic discharge of the corresponding field propagation in the substringular.]  The Poincaires that are related as such in this case can do this because of the prior mentioned Fock Space encodement.  This type of compactification that I just described causes substringular membranes, which, via the associated angular momentum that is associated here, delineates substringular operands thru which the said topological phenomena may be distributed into in order to allow discrete energy to flow -- so that energy may exist at all.
When I find the test questions that I have for the end of Course Nine, I will submit a post for that.
I will continue with the suspence later!  Take Care.   Sincerely, Sam Roach.  

Session 3 On Fock Space and the Light-Cone-Gauge

A substringular encodement and its physical counterpart iterates at its home tori-sector-range in the arbitrary case that I am now starting to describe.  The substringular encoders then break down into point particles that retain a closely knit neighborhood relative to each other.  The forward time related encoder particles travel counterclockwise around the Ultimon and the backward time related encoder particles travel clockwise around the Ultimon in their respective world-tubes.  The forward and backward encoder particles meet at their respective tori-sector-range regions at one tori-sector-range locus per encoder before it reaches its primed location, given the general locus of where the tori-sector-range-based substringular encoder that is positioned reverse-holomorphic relative to a given encoder is at. This is during the same covariant multiplicit metric as the specific case of the arbitrary home tori-sector-range region that I have been here describing, relative to the other forward and backward time related encoder particles.  The backward and forward time related substringular particles in the process make just under one circuit of their world tubes, on account of the fact that, during the beginning of Ultimon Flow, it takes one hbar of Imaginary yet actual time for all of the superstrings in one particular given world-tube to go just around the general locus of where the tori-sector-range that is reverse holomorphic in terms of Laplacian placement is at when one considers the relative positioning of any specific tori-sector-range that one could mention that is here traveling through Ultimon Flow.The encoder phenomena, along with what these encode for, are now pulled into the Main Heterotic String Fabric.  In the meanwhile, it takes the same general circuit around the world-tubes for the superstrings of an encoder as it takes for the respective encoder (the encoders encode for what we would call superstrings) in one hbar time to be in a position to enter the Main Heterotic Stringular Fabric, since the encoders, during instanton, are localized just above the center of the annulus where such encoders pull their respective superstrings, counterstrings, and Planck-Like phenonemena into the mentioned locus of the Main Heterotic Stringular Fabric.  For such encoders of our set of parallel universes, which here is the arbitrary case scenario, the encoders then travel into the said Heterotic fabric, pulling themselves with their contingent phenomena norm to anti-holomorphic (relative "down") into the sides of the said Fabric, while then moving in a cross-product directoralization to just "under" the middle set of parallel universes, while then moving norm-to-holomorphic (relatively "up") into the middle set of parallel universes.  The prior mentioned encoders then break down into point particles that retain a closely knit neighborhood relative to each other.                            
The forward time related encoder particles travel counterclockwise around the Ultimon and the backward time related encoder particles travel clockwise around the Ultimon in their respective world-tubes.  The same then happens as before, except that the (n-1) function as to the general locus where the tori-sector-ranges are pulled into the Main Heterotic String Fabric happens, in this case, in such a manner so as to pull phenomena into the relatively far set of parallel universes.  I will continue with the suspense later.  Sincerely, Sam.