The Second Part Of Session 2 Of Course 20

As the substringular process that is appertaining to that operation by which a set of two correlative zero-norm-state-projections, will here work to help to cause one respective given arbitrary superstring to undergo the Fujikawa Coupling via the Green Function -- in so as to work to assist one given arbitrary maximum contracted discrete quantum of kinetic energy, that is released from the Ward-Caucy-based bounds of an electron, to form one given arbitrary respective discrete quantum of electromagnetic energy -- there is here to be as well, at a proximal localized Fourier-based gauging, another set of two correlative zero-norm-state-projections, that will work here to help to cause the directly corresponding counterstring, that is correlative to the said superstring, to work to form the counterpart-based Fourier-based activity of the Fujikawa Coupling via the Green Function.  This happens, in so as to work to help to allow, for not only the particle-based nature of the here proximal localized quantum of discrete energy permittivity to be able to then form a photon, but as well -- to work to help to allow for the wave-based nature of the here proximal localized quantum of discrete energy permittivity -- to then be able to form a photon.
I will continue with the suspense later!  To Be Continued! Sincerely, Samuel David Roach.

Epiphany

This is like an epiphany. What I term of as Rarita Structure eigenstates, are generally a certain framework of mini-stringular segmentation -- that work here more specifically in so as to help in the inter-relationhip of bringing a kinematic interdependence between the holononmic substrate of quanta of discrete energy And the holonomic substrate of both gravitons and gravitinos. Schwinger Indices are norm-state-projecitons that act as vibrational oscillations -- that are pushed from the general multiplicit locus of the light-cone-gauge, into the multi varied loci as to where the countless Rarita Structure eigenstates are differentiating at, in a Fourier-based manner, over time. Schwinger-Indices are another manner of basically stating the existence of gravity waves. Both Rarita Structure eigenstates and Schwinger-Indices tend to be different functional groups -- of what tend to be two different gene of zero-norm-state-projection-based Hamiltonian operators, that are of the metrical-gauge-based kind. The main difference, is, that the Rarita Structure tends to act as more of a norm-state-projection-based operand, that acts as well as a template for the activity of gravity-based motion to move upon, while, the Schwinger-Indices tend to act more as the Fourier-based oscillation-based genre of that motion by which the interdependence of gravity-based operation may be helped into being brought into both existence and spontaneity. The oscillations of those disturbances in space, that are what may be called of here as Schwinger-Indices, act upon the Rarita Structure -- in so as to help to bring in the so-eluded-to interdependence. Maybe this physics model could be improved, yet, this is my current perception. Sincerely, Samuel David Roach. I will continue with the suspense later!  To Be Continued!

Field Density

The field density of the metrical-gauge-based Hamiltonian operators -- that are of the discrete energy quanta of the holonomic substrate, that is of the key substringular phenomenology-based entities, that come together in a Yukawa-based manner and /or quantize into an interdependent manner -- in so as to work o form both the covariant, the codeterminable, and the codifferentiable intertwining of discrete integrable energy, more often than not, -- work to bear a relatively inter bound inter-relation of the genus and/or the tense of the nature, as to what the manner that is of what comprises the field density of discrete substringular phenomenology.  Substringular fields are comprised of the phenomenology, that is basically made-up of zero-norm-state-based projections.  Zero-Norm-State-Projections are basically the holonomic substrate-based compositions, of what may act here as both the Laplacian-based and the Fourier-based phenomenology of bear mini-stringular segmentation.  Mini-Stringular segmentation, in general, is the 10^(-129) of one meter cross-sectional thick chord-like appendages, that come into play in the interconnections that exist in the interrelations among first-ordered point particles and/or second-ordered point particles with other first-ordered point particles and/or second-ordered point particles, over any directly corresponding Laplacian and/or Fourier-based transformation.  The multiplicit interbinding that is caused by both the Laplacian and the Fourier-based differentiation, that is of the so-stated bear mini-stringular segmentation that I have here stated, that works to form substringular fields -- is the main metrical-gauge-based general genus of Hamiltonian operator, that works to both imbue and/or retie the fabric-based interconnections that exist in the space-time-fabric that exists in the substringular.
I will continue with the suspense later!  To Be Continued!  Sincerely, Samuel David Roach.