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TONY STEELE


Glastonbury Alignments

The Golden Ratio

 

Given: The human brain seeks (needs to create or absorb) patterns.


Lidar Glastonbury
Glastonbury Tor has a harmonic orientation
 The axis extends to both coasts.
The axis is 365+ miles in length. I divided it up into day-miles
Glstonbury Tor, Avebury, Stonehenge mapping on Axis
This relationship depended upon Sqrt Phi sub-divisions.
The immediate sqrt sub-division is sqrtPHI:phi (1.272020 : 0.786151).
A VESICA algorithm creates an equally weighted (reciprocal) relationship.
A PHI SECTION algorithm creates a harmonically weighted (reciprocal) relationship.
 Mapping local 'resonant' sites using Vesica, Phi Section & Circle anchored to the National Axis.
38.2 angle & possible Lucas Numbers in Phi Section mapping 4 resonant sites.
Possible Tor - Chapel yardages using the Tor & Alignment angles as Anchored elements.
ALGORITHM for locating outer circle
MILE unit ALGORITHM (1383.6 Tor-Chapel distance)
The extended ALGORITHM, combining VESICA, SQRT PHI:phi & the 38.2 angle.
The extended ALGORITHM applied, using MILE dimension of National Axis.


THE 38.2 ANGLE & THE KEPLER TRIANGLE

TRI-DIRECTIONAL KEPLER TRIANGLE, an extension of the BI-Directional PHI SECTION.
KEPLER TRIANGLE dimensions radiating from anchored TOR
The 5 and 1/2 Palm Seked (KEPLER TRIANGLE) & The Great Pyramid
The PHI:phi ratios can be seen as alternating by a measure of Sqrt PHI:phi.
The Alternating construct implies Radiation and / or Gravitation.


This enquiry is ongoing & the work (Patterns) produced reflect the flow of questions raised by the data.



GOLDEN RATIO (PHI:phi), FIBONACCI & LUCAS RELATIONSHIP

Although I decided to use the Extended Mile Algorithm I felt I needed to probe Lucas & Fibonacci further.

I investigated the mathematical connections between Fibonacci & Lucas.

I found that these sequences are purely indicators of underlying Golden Ratio Processing.

[ i.e. ADDITIVE Phi:phi (Fibonacci) or EXPONENTIAL Phi:phi (Lucas) ].

The number sequences (Fibonacci & Lucas) can be understood, therefore, to be ratios themselves, uniquely relative to the PHI:phi entity rather than 'free' integers.

[ A ratio minus or plus another ratio is still a ratio ]


GOLDEN RATIO (PHI:phi), FIBONACCI & LUCAS RELATIONSHIP


Other indicators are possible. And they may be dismissed as arbitrary.

For example, the ratios measured from the Nautilus Shell appear arbitrary but they are indicators of underlying Double Phi:phi processing.

All shells naturally vary but on average some dimensions apply.

3.236 (The 3/4 spiral arc ratio) is, in fact, 2 x PHI 1.618.

1.08 (The chamber ratio) is, in fact, a sqrt sub-division of 3.236.

[ 3.236; 1.8; 1.34; 1.16; 1.08 ]


DOUBLE PHI:phi & SQRT SUB-DIVISION ORGANIC PROCESSING.


The above calculations appear convoluted but PHI is, by our best definition, convoluted:

Humankind defines PHI using 3 factors;

a) The Irrational sqrt5 [ https://apod.nasa.gov/htmltest/gifcity/sqrt5.1mil ],

b) a unit (+1), and

c) the doubling:halving ratio (2 : 0.5).


Phi = [ sqrt5 + 1 ] / 2


So, as per the Nautilus shell; double Phi = [sqrt5 + 1]


Although humankind's mathematics & geometry have reproduced a 'fair' mapping of the Phi ratio the formula we use does feel rather clumsy given that the primary factor (sqrt5) is a product of Phi.


sqrt5 = Phi + phi

[ sqrt5 (2.236068) = Phi (1.618034) + phi (0.618034) ]

[ phi = 1/Phi ]


i.e to produce Phi you will need Phi.

This begs the question - does Phi:phi express our number system?

e.g. 1 = Phi - phi, 5 = (Phi + phi)^2


[ c.2600BC Great Pyramid of Egypt uses harmonic 51/2 palm seked in construction - coincidence? ]

[ c. 300BC Euclid's 'Elements' describes the ratio (Phi:phi) as the extreme and mean ratio of a line AB. ]

[ The 'fibonacci' sequence was first described by the Indian mathematician Pingala (c.300BC–200BC). ]

[ 1202, Leonardo Bonacci, aka 'Fibonacci', publishes 'Liber Abaci' which introduces Europe to the Hindu-Arabic numeral system and cites the 'fibonacci' sequence as an example. ]

[ 1509, Fra Luca Pacioli writes about the Divine Proportion. ]

[ 1597 Kepler's teacher Maestlin achieves a value for the phi ratio. ]

[ Kepler (1571-1630) was among the first to give the converging ratio of the 'fibonacci' sequence a Phi value. ]

[ Kepler combines Pyrhagoras Theorem and Phi:phi to produce the Kepler Triangle. ]

[ The terms ' Golden section', 'Golden Ratio' appear in the 19th century. ]

[ 19th century, Edouard Lucas introduces the term 'Fibonacci Numbers' and presents his Lucas sequence. ]

 


CHARACTERISTICS OF FIBONACCI & LUCAS


Both Fibonacci & Lucas have PISANO PERIODS (repeating cycles) of 24 digits in Modulo 9.

Using Modulo 9 is a convenient way of discerning pattern and in this case relationship.


Alternating 'values' of the Fibonacci sequence produce the Lucas 'values'.
Pisano Periods of the Lucas Sequence.
Vacillating ratio result converging to the Golden Ratio.
Alternate 'values' ( A & B) exposes a non-vacillating convergence to ratio PHI squared.
mathematical breakdown of the Phi:phi root of both Fibonacci & Lucas sequences
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