Let's say that there is here to be the progression of three dividends or quotients, that may be determined by working to divide the euclidean expression of four different resultant dilatino-related functions, (the second to the first, the third to the second, and the fourth to the third), which is here to result in a Bianchi-related scalar curvature, that may be extrapolated into a four-spatial-dimensional Bianchi-curvature , that works to help at determining the scalar Lagrangian-related path of an ulterior particle, -- to where such a resultant scalar flow, that is to be extrapolated by the so-eluded-to respective quotients, is to work to bear the flow of an overall continuous function. Once the four-spatial dimensional curvature is extrapolated, one may then attach directorals in an arbitrary yet consistent manner to the variable-related attributes, that are of the determined Bianchi-related scalar curvature. The chirality is not altered over the said progression, and the pulse is here to remain unchanged per quotient -- to where the resultant integrative cohomology that such a so-eluded-to ulterior particle is here to traverse, would then here be able to be of a De Rham nature, over time, when this is taken as one whole. The progression of the three consecutive quotients is to dampen, from the first quotient-determined path to the second quotient-determined path to the third quotient-determined path. This means that the integrative cohomological expansion of the trajectory of the second quotient is of a lower amplitude of proximal divergence than the first one, and that the cohomological expansion of the trajectory of the third quotient is of a lower amplitude of proximal divergence than the second one. Each of such quotients takes place, over a span of one million consecutive iterations of group-related instantons -- as an evenly-gauged Hamiltonian eigenmetric. This will then mean that the overall Fourier Transformation that is here to be directly associated with the three consecutive quotients -- is to occur over an evenly-gauged Hamiltonian eigenmetric that is to span a duration of 3 millions consecutive group-related instantons. This dampening is an exponential decay in the rate of the expansion of the directly associated Lagrangian-related path, -- of which may be described of here as a natural logarithmic action -- that is taken in so as to work to decrease the rate of the expansion of the directly associated Lagrangian-based path. One may then say that an inverse Clifford Expansion had happened to the general flow of the Ward-Cauchy-related eigenstate or Hamiltonian operator, that is here to had undergone the traversal of the three said consecutive quotients -- in so as to decrease the divergence of the said eigenstate or Hamiltonian operator, from propagating out of the adjacent general locus spontaneously. Hint: Each of the three directoral-related dependant variables are to be equidistant from the origin, at each endpoint of the three different quotient-based functions! Such an eigenstate or Hamiltonian operator would here happen to be a Ward-Cauchy-related holonomic substrate, other than a superstring. (It could, though however, be an orbifold eigenset -- that may act as one perturbating Hamiltonian operator.)
I will continue with the suspense later! To Be Continued! To Be Continued! Sincerely, Samuel David Roach.
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