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| Connect the Dots
Drawing the
external boundary for the Stone Age
Athena-engraving is rather simple due to
thirteen clearly set main peripheral points. These
points are then connected by lines, leaving
us with thirteen segments. This is the
'Frame' - as simple a step as can be
towards
checking the image for hints of planned layout.
It was 1985, near the end of
Stone-Age for computing masses. I was one of the
primitives with no scanner, nor computer to
help me with graphics. Life-size copies of
the picture were too small for accurate work
using the classic ruler and compasses, and so I got a
sheaf of 2:1 blow-ups from the nearby
printers. The Game of Quotes At the first glance, the thirteen whole numbers ranging from 16 to 175 - the distances between neighboring points of the Frame in millimeters - are no big deal. But then one starts learning that these numbers are simply ideal for the purpose of quoting Pi, Phi, and rates of Equinoctial Precession as many times as possible, and as far as the following: Pi = 3.1415926535897932384626433832.. twenty-eight decimals Phi = 1.6180339887.. ten decimals Equinoctial Precession - rates match today's state of the art measurements. I'm convinced that no other set of thirteen whole numbers in a comparable range can rival the Frame at this type of communication. Clearly, its designers had to be highly sophisticated, and also in possession of astronomical instruments at least equal to what we have now. Could the Frame just occur by chance? In that case - how many possible combinations are there of thirteen whole numbers in the range from 16 to 175, as long as their total falls somewhere between 1,000 and 1,300; numbers can appear more than once, and the order in which segments appear in those groupings matters as well.? Given such conditions, any mathematician realizes that the odds against coming across the Frame by accident are mind-boggling. Here is the answer by the AI powerhouse Grok 3 Beta: The number from your calculation, approximately 3.63×10393.63 \times 10^{39}3.63 \times 10^{39}, is about 3.63 quattuordecillion. (A quattuordecillion is a 40 digit number.) The Game Rules and Pieces We can scramble our Frame into some 4,000 unique combinations of segments, but we can break it up into only 156 unique pieces between two Frame points (a piece is either a single segment, or a sequence of neighboring segments). That's where we ought to look for rational meaning. As seen in the above image, the Frame forms a loop, a circuit. In addition, we see a line connecting the Frame points B and G, which passes through the common center of a square, a lens, and a pyramid. The length of this segment is seen as zero, a subspace; so, in fact, B and G form a single point. This is something called 'the Strong Connection'. The set of thirteen segments can be viewed as both a single and a double loop,resembling the figure ∞, composed of two sub-loops: Working with two sub-loops adds another 96 Frame sequences, I believe. Thus, there are 252 sequences in all. |

| Such sequences of segments make sense
when subjected to simple manipulation like addition,
subtraction, multiplication, division, and substituting
composite numbers by the numbers of their factors, i.e.
175 can be read as either 355 (35x5) or 535 (5x35). The rule is that any game piece for the next move must be either a part of the present game piece, or immediately adjacent to it. Segments connected across the Frame by the points B and G (16 & 175 across to 113 & 146) are considered immediately adjacent, as well. The Frame lends itself to being shown as a pie-chart: 1226-pi1.gif ![]() This pie-chart indicates strongly that the Strong Connection has a special role in the Frame. The 'a' segment, 16, rises symmetrically over the 339 section, the section of three segments e—f—g. The symmetry between the two is the best possible (the intervening spaces are 436 and 435). Together the four segments perform a very important function: (16+339)÷113=3.141592... and 16÷113=0.141592... Likewise, the 175 and 146 segments are also optimally balanced; the symmetry between the two is the best possible (the intervening spaces are 452 and 453). A challenge to skeptics Using a supercomputer, create and run a program following the above stated rules, with the same goal, of producing a maximum number of references to PI, Phi, and rates of Equinoctial Precession, in mind. At the rate of one Petaflop of calculations per second it will run over a year in performing sextillions of calculations (2020 update - the world's most powerful supercomputer achieves over 400 Petaflops per second! Thus, the program should run less than a day. With septillions involved, it'd be done in about three years, but with quattuordecillions it would take forever - three years times quadrillion..) Perhaps, a quantum computer could perform the task in a reasonable period of time. My prediction is that in the end it would duplicate the "Frame" - the set of values from our engraving. If the Frame's functions cannot be improved by rearranging and replacing some, or even all of its thirteen numbers, well, then the Frame must be the best solution in its category among the 3.63 quattuordecillions of competing combinations possible. "Skeptics" prefer to put on blindfolds when facing the disconcerting reality of not being able to beat what they would deem the result of blind chance. Being dumber than alleged blind chance must be a feel depressing. It may be preferable to admit that the ancient Agency used a quantum supercomputer of its own. We can look at the Frame's numbers in at least four ways: 1) as is 2) ordered by segment size 3) ordered by unique segment size 4) as the segments appear on the 'Wheel of 113' (a pie-chart of 113's moduli) Opening Moves (beginner level) The Frame serves as the doorway into the picture, but there must be something to entice us into entering, some attention-getter, a sign above the door. Sure enough, no one can miss the Section of Regular Proportions
This section presents a slew of whole and regular proportions! The actual numbers are all multiples of 9. This section has all the earmarks of being deliberate. The Frame lends itself to being shown as a pie-chart: Brace yourself; there is a bevy of pie-charts 81 & 27 The four segments to the left of 27 add up to 270, and the eight segments to the right of 81 add up to 810 - two segments and their tenfold multiples side by side. The twelve segments involved add up to 1080, a tenfold multiple of 108, which we have twice (108 & 81 + 27), twenty-fold of 54, and forty-fold of 27 - all these distances are inside the stretch of 1080. ![]() We see more regular proportions: two neighboring sections measure 340 each - those are followed by two sections of 108 each. and 113 is one-third of rhe section (80-113-146)
The number 16 could represent the first two digits of Phi, the acclaimed Golden Ratio, and it is the base of the hexadecimal system. A check of the next door neighbors of 16, reveals that they total 314. Of course, those are the first three digits of Pi, the best known ratio of all. Phi is embraced by Pi here. Is this a sign of things to come?
Without these three segments, the entire rest of the Frame forms several Pi proportions. In efffect, the above quote of Pi represents an answer to the question posed by those proportions! Twice 340 (680), next to twice 108 (216) The arrangement is shown below.
Pi (3.14.....) 680/216 = 3.14... The first three digits are those of Pi. Pi (3.14.....) 340/108 = 3.14... That's two approximations of Pi (680/216, and 340/108) in one fell swoop. The second 340-section (clockwise) is next to the segment of 80. Their total of 420 also has a factor pair of 3 x 140, or 314 without the multiplication symbol. ![]() the Question & the Answer The open ended Pi sequence of ten consecutive segments adjoins the segment of 139 on one end, and the segment of 175 on the other. Those two segments total 314, the first three digits of Pi. 360 degrees of order After the above mentioned 314 comes 16, the last segment left in the circuit. ![]() 314 & 16, or 31416 - Pi rounded to five digits. The entire Frame circuit is devoted to Pi! |
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Quoting Pi to
twenty-eight decimals
16 & two segments to its left
3 14 159 (175-16) 260 (113+147) After 27 & 139 (3 & 14), there come the Strong Connection segments 16 & 175. The difference between the latter is 159: 3 14 159 the first six digits of Pi After 16 & 175, we have the pair of 113 & 147, which totals 260 millimeters, or 26 centimeters. 3 14 159 26 the first eight digits of Pi
Pi (3.1415926..)
Composite Numbers
and Phi
175 +
113 = 288 = 16 x 18
Back
to Pi - the Wings of 260 We just saw 175 work with 113 (and
16) in the idea of showing a composite number as a pair
of factors: 288 = 16 x 18. And 175 itself works as
a pair of factors: 35 x 5, in 355/113=3.141592... A second pair of factors in the progression The three Pi digits after 8 are 979. To extend the Pi sequence by three more digits, we need a 323. Curiously, 711 translates as either 9x79, or 3x237, and no other composite factors. That would be six digits of Pi in a row, 979 323. Unfortunately, the seventh digit, 7, is off by one; so this doesn't count. Is there a legitimate way to get the digits 323? |
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Right now, we are parked
on 16, at the point B. We've
been here before. This is
also a crossroads, where the
Strong Connection cuts across the Frame (image) to G, as
if through subspace, a wormhole. See more
on the Strong Connection below - use this anchor.
Next Pi digits are 8 462 64 33.. It just so happens that 80 millimeters, or 8 centimeters, part of the 339-sequence, is once more the immediate continuation. Pi = 3.141592653589793238... We still stand on the 339-sequence; next up are its wings.
The three segments wedged on the right between the
339-sequence and 16, with the segment on the left of the
339 sequence, add up to 462.
A
third pair of factors Around the Frame
in both Phi & Pi There
is an obvious inner
divide in the image, it's the line subtending
both the 339 and 887 sections.
How nice, the head rests on a triangle's basis, and is about equidistant to the other two sides. This triangle simply begs experimental completion into a hexagon centering in the 0,0 point, the center of the Square. Thist hexagon then fits the figure from head to toe. Note the containment of the figure within the envelope shape. The center of the first equilateral triangle falls neatly onto Athena's forehead. And later we learn that the hexagon is the offspring of two other hexagons.. see: The HexMachine |

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The Frame as a set of eleven unique numbers Game 6 As a set of eleven unique numbers, the Frame focuses on the Precession of Equinoxes and Osiris numbers. Moreover, we have: 618 first three digits of Phi's fractional part Mark 618 on the chart, as the total of the first eight unique values of the Frame. 618 = 16 + 27 + 54 + 80 + 81 + 108 + 113 + 139 The World's oldest puzzle on Osiris Numbers Documenting Osiris numbers in use back in 14,000 BPE Some years ago, professors of History of Science Giorgio de Santillana and Hertha von Dechend Hertha von Dechend proposed that prehistoric awareness of equinoctial precession was encoded into mythology, etc, around the world. The code makes use of Osiris Numbers, which synchronize the precessional cycle with the clockworks of a 360 degree circle, and a 24-hour day, impressing upon nature the seal of Creation. These numbers rounds out the precessional cycle to 25,920 years. The world had to wait until late in the steam-era for more accurate numbers. http://www.bibliotecapleyades.net/hamlets_mill/hamletmill.htm Our Frame seems to deal with the Precession of Equinoxes on three levels of accuracy, with the top level at par to ours. Equinoctial Precession - level 1 - the Zodiac of 25,920 years
The six unique numbers of the Frame below 113 (16, 27, 54, 80, 81, 108) have a common denominator of 6480, or one-fourth of 25920. They are all all Osiris numbers. All divide 25,920 into whole numbers. ![]() |
The five numbers after the six Osiris Numbers seem unrelated to the subject of Osiris numbers. Upon checking, however, they all add up to Osiris numbers. 1086x36.gif Non-Osiris numbers combine into Osiris Numbers First, 108 brings the spirit of Osiris to the second group.
360 is an Osiris Number. The combinations of segments that follow, also give even multiples of 36.
25,920 ÷ 432 = 60 25,920 ÷ 288 = 90 25,920 ÷ 720 = 36 Five for Five a) The five longest unique values of the Frame add up to 720 - a major Osiris Number. b) Not only is this 720 a whole multiple of 36, but so are four of its subsections: 252 = 36 x 7 288 = 36 x 8 432 = 36 x 12 468 = 36 x 13 720 = 36 x 20 c) The average length is 144 per segment. The total also divides into two subsections, which are multiples of 144: 288 = 144 * 2 432 = 144 * 3
Observation: This set of 720 is characterized by multiples of 9, 18, 36 and 144. 720 * 36 = 25,920 - one cycle of the astrological Zodiac, etc. for the other multiples (720 * 36) - 144 = 25,776 |
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Numbers
greater
than 113, such as 139, 340, 887,
1000, or 1226, can be
shown in successive
layers
around the wheel. For
instance, we see that 1226, 1000, and 887 all leave
the same remainder of 96, when divided by 113. Marking the start and the end of the cycle on the chart Five of the ten Frame segment values occupy a significant position on the Wheel of 113. The start and the end of the cycle, is where we see an entire group of values: The key first remainder in the cycle after the mandatory 1 & 10 & 100 & 1000 start is 96. The total length of the Frame (1226) leaves this remainder. Two Frame segment values (139 & 147) mark the last two steps of the cycle by their remainders. This dense grouping indicates the carrying out of all the 112 steps in the cycle. The Pi-decimals Two segments - 80 and 146 form a straight line across the pie-chart of 113, because they add up to twice 113. We remember that in the image we also had a line subtending the section of 339, the Tri-balance, which is made of 80 and 146 sandwiching 113. That line was an obvious inner image divide.. The sequence of six Pi digits on our pie-chart begins with 16, then 146 marks the sixth, and the last digit. So, 16, and 146 are markers for this sequence, and so is 80. * One marker for the start, and two markers for the end of the PI sequence on the pie-chart of 113 indicate that the Ancients knew not only where this PI approximation begins, but also where it ends. To know that 355 / 113 gives Pi correct to the sixth decimal is to know that the seventh decimal is wrong - and, how could one do that without knowing the correct seventh decimal of Pi? As confirmation, we had Pi quoted, to eighteen decimals. In addition to Pi and Phi, and the precessional (Osiris) numbers, we now have repeating fraction cycles, or blocks on the Frame's list of subjects. Other interesting repeating blocks of Frame values 80 / 81 = 0. 9 8 7 6 5 4 3 2 (repeating block)1 / 81 = . 0 1 2 3 4 5 6 7 8 (repeating block)
80 & 81 are the lowest two whole numbers giving a ratio, where decimals form a series of at least eight elements, descending by the regular interval of one. 1 & 81 are the lowest two whole numbers giving a ratio, where decimals form a series of at least nine elements, ascending by one.80 and 81 total 161 - the first three digits of Phi, or, the square root of 25,920 to within a hair 161 x 161 = 25,920 + 1. 80 x 81 = 6,480 = 1/4 of 25,920 (Years of the Zodiac) * |
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| Top Menu |
| Frame's Geometry - a) The HexMachine |
| The Agency claims to have designed
the layout of Giza's great pyramids |
| An exact reconstruction
of Giza's pyramidal layout as surveyed by W.F.
Petrie |
| Nasca Monkey |
| External link -
interesting - Pi man G H Bailey |
| ©
Jiri Mruzek myname at yahoo dotcom Vancouver, BC, Canada |