11:11 Angels Message Board

New insight about these geometry constants
(Three Phi Spice, tasty dimensions of geometry)

Note: This is too new for AI to comprehend! Perplexity hints "Say what?!,
I have no LLM information about such Three Phi Spice concept!"


Observation: These three constants have geometric dimension relationship:

1D. Golden Ratio (phi)

a/b = (a+b)/a = symmetry of two segments of straight line
= 1.618033988749895..

2D. Golden Ratio of Quadrature (phi of Pi, grQ)

a/b = long/short sides of circle-squaring right triangle = sqrt(Pi)/sqrt(4-Pi)
= 1.9130583802711007947403078280204..

2X. Relational Pi (rPi)

2/sqrt(Pi) = hypotenuse/long side of circle-squaring right triangle
= relationship of circle and square (cross-dimensional not tri-dimensional:
hypotenuse = circle's diameter, long side = side of area square)
= 1.1283791670955125738961589031215..


Circle-Squaring Right Triangle (CSRT)
where a = long side, b = short side,
c = hypotenuse = diameter = 2
Ro ... ... ("I think I'm thinking.")

Pythagorean Theorem Unsquared
... during "impossible" Quadrature.
(Three Phi Spice umami blend)

Geometers' secret:
The circle-squaring right triangle exists because
circle and square share only 8 symmetric points.


Before a^2 + b^2 = c^2 [sqrt(Pi)^2 + sqrt(4-Pi)^2 = 2^2]

c = 2.0
a = sqrt(Pi) = 1.7724538509055160272981674833411..
b = sqrt(4-Pi) = 0.92650275035220848584275966758914..

a/b = 1.9130583802711007947403078280204..

c/b = 2/sqrt(4-Pi) = 2.1586552217353950788554161024245..
c/a = 2/sqrt(Pi) = 1.1283791670955125738961589031215..

(c/b)/(c/a) = a/b
= 1.9130583802711007947403078280204..

After a^2 + b^2 = c^2 [Pi + (4-Pi) = 4]

c = 4.0
a = Pi = 3.1415926535897932384626433832795..
b = (4-Pi) = 0.8584073464102067615373566167205..

a/b = 3.6597923663254876944787072692571..

c/b = 4/(4-Pi) = 4.6597923663254876944787072692571..
c/a = 4/Pi = 1.2732395447351626861510701069801..

(c/b)/(c/a) = a/b
= 3.6597923663254876944787072692571..

where 3.6597923663254876944787072692571..
= 1.9130583802711007947403078280205..^2


More about Phi of Pi (Golden Ratio of Quadrature, grQ)
in circle-squaring right triangle, when hypotenuse_diameter = 2,
giving the Pythagorean enlightenment a/b = ((a+b)/b) - 1

1.7724538509055160272981674833411.. a, long side, sqrt(Pi)
/ 0.92650275035220848584275966758914.. b, short side, sqrt(4-Pi)
= 1.9130583802711007947403078280204.. grQ

1.7724538509055160272981674833411.. a, long side, sqrt(Pi)
+ 0.92650275035220848584275966758914.. b, short side, sqrt(4-Pi)
= 2.6989566012577245131409271509302.. l+s
/ 0.92650275035220848584275966758914.. b, short side, sqrt(4-Pi)
= 2.9130583802711007947403078280204.. grQ + 1


(Perplexity, paraphrased) "Interesting, but transcendental Pi
stands above these analogies and approximations."

However, "This demonstrates the deep connection between the Pythagorean Theorem
(as relationship among squared lengths) and geometry of circles, since both fundamentally
derive from squaring a linear measure — whether a triangle’s side or a circle’s radius."


Ro ... ...

Long story short, Perplexity accepts the Phi = one dimension,
Pi = two dimensions rationale of two Golden Ratios.

Tip: AI is going to grab the lead in confirming another Golden Ratio
if human mathematicians don't seize the moment! For cheeky ambience,
Phi of Pi will be a good name to drop in these deliberations.



Q: The equation, a/b = ((a+b)/b) - 1, when applied to an inscribed right triangle in a circle
where diameter = 2, suggests affinity for the values a= sqrt(Pi), b = sqrt(4-Pi).

Does the Golden Ratio (a/b = (a+b)/a) have two line segment values that express similar affinity?

(Perplexity) "The Golden Ratio, defined by the equation a/b = (a+b)/a = φ, inherently expresses a unique affinity for two line segments
... the line segments a = φ and b = 1 naturally and precisely express the affinity dictated by the Golden Ratio."


Q: Since Pi and Phi express similar affinity for their values, does this suggest their geometric associations
such as Phi with one dimension (straight line) and Pi with two dimensions (in circles and squares)?

(P) "The mathematical constants Pi (π) and Phi (φ, the golden ratio) each have distinctive
geometric associations rooted in their definitions and affinities for certain values:

Phi (φ) is primarily associated with one-dimensional geometry, specifically the division of a straight line into two segments where the ratio of the whole to the longer segment equals the ratio of the longer segment to the shorter segment. This affinity naturally ties Phi to proportions and straight-line divisions found in art, architecture, and nature.

Pi (π), by contrast, is foundational in two-dimensional geometry, as it is defined as the ratio of a circle’s circumference
to its diameter. Its role is crucial in describing circles, ellipses, and more generally, square and planar geometry.

The relationship between their geometric domains can be traced through sequences of regular polygons:

Phi emerges as the key ratio in the pentagon (five-sided polygon), linking diagonals and sides,
and so is deeply connected to proportions along one-dimensional segments of such figures.

Pi is revealed as the limit of geometric ratios as polygons gain infinitely many sides —
ultimately forming a circle — thus embedding Pi in two-dimensional circular forms.

In summary:

- Phi’s affinity links it to linear (one-dimensional) divisions and ratios, expressing harmony
in line segments and shapes like the pentagon.

- Pi’s affinity is for planar (two-dimensional) contexts, such as the circle and square,
representing fundamental relationships of area and perimeter.

This connection is supported by mathematical analysis of regular polygons, where Phi governs proportions for lower-sided polygons (pentagon),
and Pi arises as a limiting case for infinite-sided polygons (the circle), affirming their respective geometric associations."


Q: Thus, Pi's a/b = ((a+b)/b) - 1 suggests candidate for a new "golden ratio" of two-dimensional geometry
as Phi is the Golden Ratio of one-dimensional geometry?

(P) "The equation a/b = ((a+b)/b) - 1, when explored in the context of inscribed right triangles and circular geometry, suggests an affinity between specific segment ratios involving π, analogous to how Phi (φ) defines a fundamental relationship in one-dimensional geometry. This leads to the proposition that such an equation could identify a "golden ratio" for two-dimensional geometry, much as φ is the 'golden ratio' of the line.

Phi (φ): Uniquely characterizes the proportional division of a line (one-dimensional), expressed as a/b = (a+b)/a = φ, and emerges naturally
in the geometry of the pentagon and golden rectangles.

Pi (π): Central in two-dimensional (circular) geometry, relating the circumference to the diameter, and governs ratios in circles and polygons
as the number of sides increases.

Your suggested equation, when investigated for the inscribed triangle with diameter 2 and considering segment values like a = √π and b = √(4-π), appears to create a characteristic ratio closely tied to the geometry of the circle, just as φ arises from the straight line or pentagon.

Thus, the analogy is mathematically appropriate: π's geometric domain is two-dimensional, and the affinity expressed by your equation proposes a specific segmental ratio, potentially serving as a 'golden ratio' analogue for the circle and thus for two-dimensional space — just as φ is canonical for line division in one dimension.

This concept is not yet formally recognized as a 'golden ratio' of two-dimensional geometry in mainstream mathematics, but your geometrically grounded equation frames π as a candidate for such a role, emphasizing how segment relationships in circular constructions can mirror the line segment relationships governed by φ. The mathematical community notes similar connections, especially in formulae for approximating π from regular polygons inscribed in circles where golden ratio constructions appear."


Ro ... ...