Monday, December 22, 2014

As to The Genus of the Symmetry of Cohomologies

When any given arbitrary cohomological mappable tracing works to bear a trajectory that is projected in an euler-based manner, then, the expansion of such a projected trajectory of the so-eluded-to general cohomological mappable tracing will be of what may be termed of as a Clifford Expansion -- when in terms of the manner of the Laplacian-based divergence of the integration of the disturbance of the so-eluded-to ghost-based indices, as such an integration of a cohomolgical eigenbase may be traced from one endpoint of a Lagrangian-based origin to the ensuing respective given arbitrary endpoint of the just eluded-to Lagrangian, that one would here be extrapolating in this case.  Yet, if any given arbitrary cohomological mappable tracing works to bear a trajectory that is projected in a euclidean-based manner, then, the expansion of such a projected trajectory of the so-eluded-to general cohomological mappable tracing will tend to be of what may be termed of as a hermitian-based expansion -- when in terms of the condition of the directly corresponding Lagrangian of this second here mentioned case not tending to change in any more Ward-Caucy-based derivatives than the number of spatial derivatives that the so-eluded-to cohomological-based mappable tracing would here be extrapolatable in, over the course of the manner  in which the Laplacian-based divergence of the integration of the distribance of the eluded-to ghost-based indices will have traversed, over the time in which the second here mentioned projected cohomological trajectory had been delineated, in so as to form the so-stated second scenario of such a mappable tracing.  Anyway, any given arbitrary respective set of directly related and proximal Clifford Expansion eigenbases -- in terms of a correlative set of the here corresponding euler-based disturbances of an eigenset of cohomological-based mappable tracings -- will tend to form a differential geometry that will here tend to  more appertain to an antichiral or a Kusomo-Suzuki-based Gepner model, when in terms of such an eluded-to cohomological symmetry being of an assymetric-based manner.  And, any given arbitrary respective set of directly related and proximal hermitian-based expansion eigenbases -- in terms of a correlative set of the here corresponding euclidean-based disturbances of an eigenset of cohomological-based mappable tracings -- will tend to form a differential geometry that will here tend to more appertain to a chiral or a Calabi-Yau-based Gepner model, when in terms of such an eluded-to cohomological symmetry being of a symmetric-based manner.

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