Let us initially consider the basic generic set-up, for the condition of the wave modulae of an eigenfunction. What I am referring to is: e^(lambda*the eigenfunction). One may here come to grips with the three basic genre of the wave modulae of eigenfunctions, which would be:
1) e^(lambda*the eigenfunction), when lambda is less than zero -- for degenerative cohomologies.
2) e^(lambda*the eigenfunction), when lambda is zero -- for purely Rham-based cohomologies.
&3) e^(lambda*the eigenfunction), when lambda is more than zero -- for generative cohomologies.
Now, we will look at a specific example -- as to how this may be applied to a physical condition, at the sub-atomic level.:
One is to initially have a loose electron -- that is of a basically Rham-based cohomology -- to where the cohomological index is to neither work to bear a degenerative nor a generative cohomology.(lambda~0).
Next -- the said electron is to be magnetically pulled into the Ward-Cauchy-based field of an atom -- to where the cohomologies that the electron are to form are to now be of a net generative nature, to where lambda is here to be greater than 0. (This is to then be related to what may be called a Faro wave function modulae.)
Next -- the said electron is to be struck by a photon -- to where there is the eminent formation of an antiholomorphic Kahler condition -- to where there will thus be the formation of a basically degenerative cohomological index. In the process, as the electron is to be struck via a Calabi-Yau interaction, in the process of it going into an antiholomorphic Kahler condition, -- it is to first drop an energy level (towards the nucleus of its correlative atom), while then going back an energy level (away from the nucleus of its correlative atom) -- to where the said electron is to then to release a discrete quantum of energy, in the form of a photon, through the Fujikawa Coupling, via the Green Function.
I will explain cohomological generation later! To Be Continued! Sincerely, Samuel David Roach.
Showing posts with label Rham cohomologies. Show all posts
Showing posts with label Rham cohomologies. Show all posts
Wednesday, July 19, 2017
Wave Modulae And Cohomological Generation
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Calabi-Yau,
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Monday, May 9, 2016
As To Generated and Degenerated Ghost-Based Indices
Sometimes, there may be a cohomology that is being generated at one end of the so-eluded-to ghost-based pattern -- at a slower rate than it is being degenerated at its relatively opposite end. Often, such a general genus of cohomological generation/degeneration is of a Rham-based tense of a cohomological-based tracing. Such a hermitian flow of cohomological tracing may either be initially generated, via the general activity of a euclidean expansion of the directly associated ghost-based indices, while, often such a hermitian flow of cohomological tracing may, instead, be initially generated via the general activity of a Clifford-based expansion. Since such a general genus of what is here to be a generative/degenerative cohomological tracing, is to here bear a mappable Lagrangian -- that works to involve a higher rate of a Rayleigh scattering eigenpulse than the here existent rate of its directly affiliated Reimman scattering over time, in the course of the here present kinematic interplay of the Fourier-based differentiation -- of that general format of a tense of the formation of a physical memory of ghost-based indices, that are here to later begin to be scattered out of existence at a faster rate than these are brought into formation -- this will then tend to spontaneously work to cause the ellimination of those eigenindices, that had initially worked to form the proximal locus of the directly related cohomological-based tracing that is of such a genus of an overall tense of generation/degeneration. I will continue with the suspense later! To Be Continued!
Sincerely, Samuel David Roach.
Sincerely, Samuel David Roach.
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Clifford Expansion,
degeneration,
eigenindices,
euclidean expansion,
generation,
ghost-based indices,
Rayleigh,
Reimman,
Rham cohomologies
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