Even Rindler, whose name is attached to aspects of special relativity, states about Einstein's postulate:
"Light propagates the same in all inertial frames... It is not for us to ask how!"
Well since Einstein' space time based on Minkowski's Paper - Minkowsky, Hermann, German paper Raum und Zeit (1909), Jahresberichte der Deutschen Mathematiker-Vereinigung, 75-88. In the 1920 English translation...We can clothe the essential nature of this postulate in the mystical, but mathematically significant formula 3x108(metre)=в€љ-1(second)....
Well Minkowsky made Einstein's postulates mathematical by making the speed of light the imaginary unit. Hence what the imaginary unit can do the speed of light can do -- and the imaginary unit closes the algebra on the geometry for any equation. That is, by making i equals c Minkowsky got space-time.
Clearly by making the speed of light by definition the imaginary unit, we imbue "the speed of light" with all the "properties of the imaginary unit" which are the properties that are necessary and sufficient to close all equations. That is, what the imaginary unit can do, the speed of light can do to. Clearly the imaginary unit via The Fundamental Theory of Algebra forces "c=i" to behave as a universal constant always timelessly available for all observers. That is, the imaginary unit is the "timeless" number that closes algebra on a geometric number field, all numbers are "forced" by the power of mathematical certainty (obtained by deductive proof) to obey the terms and conditions of the Fundamental Theory of Algebra which states that every non-constant single-variable polynomial with complex coefficients has at least one complex root. That is, there are no "places" without the constant of closure for General Relativity of "c=i" that is, this "constant of closure" is universal and acts as a timeless initial condition for all polynomials that describe any interactions via single variable equations that are non-constant.
and recall What is fundamental in complex numbers - is how we define the imaginary unit in maths. Recall the imaginary unit is defined by solving uniquely the equation xВІ+1= 0. That is, i is a unique (i.e. distinguishable) number defined as the square root of minus one, i.e., i в‰Ў +в€љ-1. Since there are two possible square roots for any number +в€љ and -в€љ, clearly the square roots of a negative number cannot be distinguished until one of the two is defined as the imaginary unit, at which point +i and -i can then be distinguished. Since either choice is possible, there is no ambiguity in defining i as "the" square root of minus one.
Your essay uses these two imaginary units above since clearly +i(second)=c(meter) then elementary complex maths tell us that 1/i=-i, or that is -i(second)=h(Joules) that is why you say the clocks count energy not time. Clearly Joules ~ 1/time or (Quantum theory:minimum change О"EО"t~h/2ПЂ).
I feel using these basic facts you could of derived your ideas with less bother and not use the two-time and one-time frames. Since Minkowski used the +i for space-time and you include the qm -i. Yes I'm saying that our physics uses the indistinguishable imaginary units +i,-i and not the definitional i в‰Ў +в€љ-1
A marvelous read and the comments you are receiving are so great -- one of the best essays so far.
I hope you have time to read my essay "What is fundamental is the area of the imaginary unit" it goes into details about these two constants for the definitional imaginary unit