Re-Calibrated Chern-Simons Invariant Gauge-Actions

 The Expansion rate of re-calibrated Chern-Simons Invariant gauge-actions, may often tend to be eminently associated, with the expansive inversion, of dispersed homotopic residue. SAMUEL. 

Electromotive Charge tends to be eminently associated with cohesion, stability, and physical ordering. 

Moreover; Physical Entropy tends to be eminently associated with incoherence, instability, and physical chaos. 

The re-calibration of Chern-Simons Invariants (which are only kept “invariant” when the corroborative rate and direction are held constant), at one spot at one stage, can either be harmonic, or it can be anharmonic. The harmonic re-calibration of Chern-Simons Invariants works to form charge — thereby tending to move in the direction of order. Whereas; The anharmonic re-calibration of Chern-Simons Invariants works to form entropy — thereby tending to move in the direction of chaos. That’s why this topic is SO important!

Gyrating flying saucers, tend to move in the general direction, in which the net Fourier-Related-Progression is to peak, at the proximal local tightly-knit region, at which the holomorphic zero pole of the homotopic transfer is to be induced into, as the implicit team of discrete energy moves. 

Cohesive Fourier-Related Systems, will often tend to be hermitian; &; Dispersive Fourier-Related Systems, will often tend to be entropic. 

A set of interdependent physical frequencies, that operate to perform a common function, will often tend to be eminently corroborative, with a hermitian Fourier-Related-Progression. 

A set of interdependent physical frequencies, that operate to perform a set of relatively unrelated functions, will often tend to be eminently corroborative, with an entropic Fourier-Related-Progression. 

The physical incursion of sound, upon a progressively delineated, kinematically propagated, interdependent set of physical frequencies, may often tend to enhance the general characteristics, of the spontaneous potential resultant, of a hermitian Fourier-Related-Progression. 

The physical incursion of heat energy, upon a progressively delineated, kinematically propagated, interdependent set of physical frequencies, may often tend to enhance the general characteristics, of the spontaneous potential resultant, of an entropic Fourier-Related-Progression. 

Isometric molecular vibration, often tends to facilitate the formation of sound, thereby potentially enhancing the proximal local tendency, of hermitian wave progression. 

Asymmetric molecular vibration, often tends to facilitate the formation of heat, thereby potentially enhancing the proximal local tendency, of entropic wave progression.