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Pi, Phi and Fibonacci
Numbers
Phi ( Φ ) and pi (p)
and Fibonacci numbers
can be related in several ways:
You might be surprised to learn that the two most famous numbers in the
history of mathematics, phi ( Φ ) and pi (p)
and are exactly related to each other by a rational fraction,
even though both are irrational numbers. Roger Logan,
in his paper entitled THE MAGNIFICENT PERFECT SQUARE © 2001,
introduces the concept that both
Φ | |
2
and p
are composite numbers sharing a common irrational
factor. When put in the form of a fraction, Φ 2/p,
this common irrational factor cancels out,
leaving a rational fraction comprised of two perfect
squares (1, 2, 4, 9, 16, ...).
The composite number when substituted for the Greek letter is shown to
satisfy and clarify Euler's famous equation giving proof that and are truly
composite numbers by reason that things equal to the same thing are equal to
each other. Eulers equation is not only satisfied, but it is clarified as to
the relationship of the numbers e, pi, i, and -1.
Mr.. Logan's paper is intentionally expository and shows the mean
proportional relationship between and is easily expressed by his "
structure", using right triangles, the Pythagorean theorem, the laws
governing mean proportionals, and high school - level mathematics (calculus
is not required). In addition to the math, Mr. Logan provides the reader
with a narrative giving a brief review of the Number System and short
history about the number Pi along with an interactive Glossary as an aid for
the reader.
The Pi-Phi Product and its derivation through
limits
The product of phi and pi,
1.618033988... X
3.141592654..., or 5.083203692,
is found in golden geometries:
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Golden Circle
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Golden Ellipse
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Circumference =
p
Φ
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Area =
p
Φ
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Ed Oberg and Jay A. Johnson have developed a unique
expression for the pi-phi product (p
Φ)
as a function of the number
2 and an expression they call "The Biwabik Sum,"
a function of phi, the set of all
odd numbers and the set
of all Fibonacci numbers, as follows:
| p
Φ
=
22
{1 |
+ [ (2/3)
/ (F1+F2Φ)
+ (1/5) /
(F3+F4Φ)
- (1/7) /
(F5+F6Φ)
] |
| |
- [
(2/9) /
(F7+F8Φ)
+ (1/11) /
(F9+F10Φ)
- (1/13) /
(F11+F12Φ)
] |
| |
+ [ (2/15)
/ (F13+F14Φ)
+ (1/17) /
(F15+F16Φ)
- (1/19) /
(F17+F18Φ)
] |
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- … } |
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= 5.083203692.... |
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T his
relationship was derived after Oberg noticed an interesting
relationship between pi and phi while contemplating geometric questions
related to the location of the King and Queen’s burial chambers in the Great
Pyramid, Cheops, of Giza,
Egypt, the design of which is based on phi.You can
access the complete paper published by
Ed Oberg and Jay A. Johnson,
The Pi-Phi Product, in Word, or the Pi-Phi Product
in Excel to see their formulation illustrated numerically.
Trigonometric functions
relating phi ( Φ ) and pi (p)
Divide a 360° circle into 5 sections of 72° each and
you get the five points of a
pentagon, whose dimensions are all based on phi relationships.

Accordingly, it shouldn't be too
surprising that phi, pi and 5 (a Fibonacci number) can be related through trigonometry:

Note: Above formulas expressed in radians, not
degrees
Pi squared (p2)
and 987
Pi squared (p2)
is 9.8696..., which, if you round to 9.87 and ignore the decimals, is 987, the 17th number of the Fibonacci series.
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