Discovery of the true geometric π and Squaring the circle

20/₃₄	In the latter case we can switch to a direct execution of the much coveted quadrature, re-starting from the basic square, (side Φ of the radius `Ca` in the figure) bypassing the preliminary construction of the great triangle with its whole cohort, which in any case remains the keystone in translating the transcendence of the π into immanent form. According to the procedure described above, from the base of the starting square with vertex in `C` we will obtain the length `Ca` in increasing golden proportion φ, of which we will make the radius of the primary circle, assigning it a value of `1,0` (instead of the diameter, whereby the Φ⁰ in the figure). Therefore the side of the square `C` will take on value Φ. To obtain its square root it will be sufficient to extend it from `C` to `b`, and then with the center in the middle of `ba` to trace the semicircle `apb` [green stroke] which will be intersected at the point `p` by the primary diameter, as a vertical extension passing through `C`. The Pythagorean relation is confirmed `bC:Cp = Cp:1`, from which `Cp` = `√bC`, side of ¼ of the square whose perimeter has the length of the circumference with radius `Ca`. Similarly we proceed from this by adding it in turn on the diameter to the radius `Ca` thanks to the arc `pd` with center in `C`, then tracing the semicircle `dqa` [orange stroke] with a center in the middle of `da`, intersected by the primary vertical diameter at point `q`, so that `Cq`, the square root of `Cd` and `Cp`, will be the side of the ¼ of the square with the same area as the circumference with radius `Ca` = 1. It will be enough to reproduce the last square obtained, superimposing it on the circle in the four quadrants to take note of its compliance without compromise. If we then wanted to quarter the vision on a functional value of π as simple²√Φ, we would likewise see in it the side of the square with a perimeter equivalent to the circumference with radius = ½, and in the form⁴√Φ the side of the square with an area matching that of the circle with radius = ½: a kinship at the DNA level. I don't think you can ask for more for squaring the circle. Summing up The writer will not take a position between the three perspectives, nor seek glory for himself, he has already collected enough of it in the course of previous incarnations. Nor does it expect profits: its seven Web domains, containing several searches and advanced solutions (see below), do not sell services or advertisements of any kind. As long as it is not said that "he came close"... Initially he would have been satisfied if everyone had intended to agree that this sacred triangle was a subject of such importance as not be kept closed in a drawer, whatever the outcome and the risk might be; but now that his research has matured, he no longer has any doubts.

20/₃₄

In the latter case we can switch to a direct execution of the much coveted quadrature, re-starting from the basic square, (side Φ of the radius Ca in the figure) bypassing the preliminary construction of the great triangle with its whole cohort, which in any case remains the keystone in translating the transcendence of the π into immanent form.

SQUARE for SQUARING According to the procedure described above, from the base of the starting square with vertex in C we will obtain the length Ca in increasing golden proportion φ, of which we will make the radius of the primary circle, assigning it a value of 1,0 (instead of the diameter, whereby the Φ⁰ in the figure).
Therefore the side of the square C will take on value Φ.
To obtain its square root it will be sufficient to extend it from C to b, and then with the center in the middle of ba to trace the semicircle apb [green stroke] which will be intersected at the point p by the primary diameter, as a vertical extension passing through C.
The Pythagorean relation is confirmed bC:Cp = Cp:1, from which Cp = √bC, side of ¼ of the square whose perimeter has the length of the circumference with radius Ca.

Similarly we proceed from this by adding it in turn on the diameter to the radius Ca thanks to the arc pd with center in C, then tracing the semicircle dqa [orange stroke] with a center in the middle of da, intersected by the primary vertical diameter at point q, so that Cq, the square root of Cd and Cp, will be the side of the ¼ of the square with the same area as the circumference with radius Ca = 1.
It will be enough to reproduce the last square obtained, superimposing it on the circle in the four quadrants to take note of its compliance without compromise.

If we then wanted to quarter the vision on a functional value of π as simple²√Φ, we would likewise see in it the side of the square with a perimeter equivalent to the circumference with radius = ½, and in the form⁴√Φ the side of the square with an area matching that of the circle with radius = ½: a kinship at the DNA level.
I don't think you can ask for more for squaring the circle.

Summing up

The writer will not take a position between the three perspectives, nor seek glory for himself, he has already collected enough of it in the course of previous incarnations. Nor does it expect profits: its seven Web domains, containing several searches and advanced solutions (see below), do not sell services or advertisements of any kind.
As long as it is not said that "he came close"...
Initially he would have been satisfied if everyone had intended to agree that this sacred triangle was a subject of such importance as not be kept closed in a drawer, whatever the outcome and the risk might be; but now that his research has matured, he no longer has any doubts.