The Sri Yanra-like pattern of the 15 layers of vertices in the disdyakis triacontahedron and its scientific meaning

Autor
Phillips, S.M.
Publicado en
Internet
Año
2004
Tema
POLYHYDRONS
Idioma
English
Categoría
C4 Geometry
Número de archivo
6847

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Last fm Leds Stephen M. Phillips (334 Article 26: How the seven musical scales relate to the disdyakis triacontahedron 42 p [939 Article 27: How the disdyakis triacontahedron embodies the structural parameter 1680 of the E8xE8 heterotic superstring 28 p L 83 q Article 28: Encoding ofthe roots of the superstring gauge symmetry group E8 in the inner Tree of Life and the disdyakis triacontahedron 22p. Article 29: The triakis tetrahedron and the disdyakis triacontahedron embody the fine- L 3 Lj g Structure constant and the structural parameter of the heterotic superstring ANN 15p Article 30: The equivalence of the triakis tetrahedron, disdyakis triacontahedron and Plato's ‘Lambda tetractys' 15 p Articlé 31 : The musical nature of the polyhedral Tree of Life Article 32: Derivation of the bone and classical acupuncture compositions of the human body and their relationship to the seven musical scales houd Lau Article 33: The human axial skeleton is the trunk of the Tree of Life 16 p Article 34: The seven layers of vertices in the disdyakis triacontahedron encode the 206 4 5 bones of the human skeleton, the superstring symmetry groups E8 and E8xE8 and the L Ô he boul L 34 superstring structural parameters 168, 336, 840 & 1680 Article 35: The Tree of Life nature of the Sri Yantra and some of its scientific meanings Arucle 36: The Sri Yanra-like pattern of the 15 layers of vertices in the disdyakis triacontahedron and its scientific meaning Avice 37: The seven octaves of the seven musical scales are a Tree of life pattern LS 4 3 mirrored in the disdyakis triacontahedron 36 p Article 38: The geometrization of the seven musical scales and its mathematical b34 a implications 15 p Article 39: The correspondence between the inner Tree of Life, the Sri Yantra & the I diagram and their realization in the seven musical scales 6350 Ching 17 p i Article 40 (Part 1): The unification of all sacred geometries and its implication for ‘ particle physics 40 p Article 40 (Part 2): The unification of all sacred geometries and its implication for particle physics 45 p ! Article 40 (Part 3): The unification of all sacred geometries and its implication for : particle physics 49 p | Article 40 (Part 4): The unification of all sacred geometries and its implication for i particle physics

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41: The pyramidal form of the inner Tree of Life, its counterparts and its 18%4, Article encoding of the human skeleton 18 p Article 42: Comparison of the eight Church musical modes and the human skeleton as Lasi holistic systems 22 p ner Article 43: The Tree of Life nature of the {3,7} tessellation of the 168 automorphisms of the Klein quartic on the 3-torus 31 p Article 44: The polyhedral CTOL and its embedding of the 496 roots of the heterotic superstring gauge symmetry group 195° E8xE8 16 p Lost ey 354 Loke Article 45: The 1680 circularly polarized oscillations in the E8xE8 heterotic superstring as 1680 harmonics of the Pythagorean musical scale 12 p Article 46: How sacred geometries encode the 64 codons of mRNA and the 64 anticodons of tRNA 38 p Article 47 (Part 1): How sacred geometries embody structural/dynamical parameters of the E8xE8' heterotic superstring and the codon pattern of DNA Article 47 (Part 2): How sacred geometries embody structural/dynamical parameters of the E8xE8' heterotic superstring and the codon pattern of DNA 35p+31p Article 48: The holistic nature of the first (4+4) regular polygons of the inner Tree of Life 18 p Article 49: How some sacred geometries are equivalent maps of all levels of reality 32p Article 50 (Part 1): The Golden Ratio, Fibonacci & Lucas numbers in sacred geometries Article 50 (Part 2): The Golden Ratio, Fibonacci & Lucas numbers in sacred geometries 64p+66p Article 51: The connection between Fibonacci numbers and the Pythagorean musical scale 12p Article 52: How EHYEH, YAH & YAHWEH prescribe the root structure & dimension of E8 A breakthrough in relating sacred geometries to the superstring constituents of quarks 21p Article 53: The 10-fold division within five sacred geometries & its manifestation in the ten whorls of the UPA, the subquark state of the E8xE8 heterotic superstring Mathematical meaningsofthe Part 1 (PDF) 26p Part 2 (PDF) 53 p Names of God

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ARTICLE 36 TThhee S Srrii Y Yaannttrraa--lliikkee P Paatttteerrnn ooff tthhee 1155 LLaayyeerrss ooff V Veerrttiiceess iinn tthhee D Diissddyyaakkiiss TTrriaaccoonnttaahheeddrroonn aanndd iittss S Scciieennttiiffiicc M Meeaanniinngg by Stephen M. Phillips Flat 3, 32 Surrey Road South. Bournemouth. Dorset BH4 9BP. England. E-mail: stephen@smphillips.8m.com Website: http://www.smphillips.8m.com Abstract Viewed along an axis joining any pair of C vertices of the disdyakis triacontahedron, its 60 vertices are shown to be arranged similarly, although not identically, to the triangles in the Sri Yantra. The projection of the ten triangles and five 6-sided polygons formed by these vertices onto the equatorial (XY) plane of the polyhedron generates 42 vertices and four pairs of intersecting triangles, comparing with the 42 tips of the four pairs of intersecting triangles that surrounding the central one in the Sri Yantra. There are 46 vertices on either side of the equatorial plane that are arranged as pairs, with one vertex directly above the other. The 23 pairs consist of a diametrically opposite pair of C vertices and 22 other pairs. They correspond in the polygonal Tree of Life to the 23 pairs of hexagonal yods on the 23 edges of its pair of dodecagons. The 23 pairs of vertices or hexagonal yods symbolize the 23 pairs of chromosomes in the human cell. The Godname YAH prescribes the number of polygons, the Godname EHYEH prescribes the 41 vertices of the 33 triangular sectors of the eight types of polygons and the Godname ADONAI prescribes their 66 edges. The (240+8) roots of the superstring gauge symmetry group E 8 are encoded in the 15 polygons as the 240 geometrical elements surrounding their centres, of which there are eight independent ones, the others being their mirror images. The counterparts of these elements in the polygonal form of the Tree of Life are the 240 hexagonal yods that surround the centres of the seven separate, regular polygons. Constructed from tetractyses, the eight types of polygons formed by the vertices of the disdyakis triacontahedron have 206 yods. They symbolize the 206 bones of the human skeleton, the 34 corners and centres of the seven polygons above or below the XY plane denoting the 34 single bones in the axial skeleton. The disdyakis triacontahedron embodies the number 137 associated with the fine-structure constant as the number of vertices in the polyhedron and 15 polygons when the 60 sectors of the latter are divided into three triangles. When these triangles are turned into tetractyses, the 15 polygons have 840 yods other than polygonal corners. They symbolize the 840 circularly polarized oscillations in an inner or outer half of each of the ten closed curves making up the E 8×E8 heterotic superstring. The archetypal character of the polygons is confirmed by the equivalence of their yod composition to Plato’s Lambda Tetractys, whose numbers have been known for over 2000 years to have as their proportions the tone ratios of the notes of the Pythagorean musical scale. This equivalence extends to the central hexagon in the XY plane.

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1. The 15 layers of polygons in the disdyakis triacontahedron The position vector of the vertex A (Fig. 1) at (0,0,2φ2) is inclined at an angle αto the position vector of the vertex C at (0,-φ,φ3 ), where tanα= φ/φ3 = 1/φ2 . As φ– 1 = 1/φ, 1/φ2 = 1 – 1/φ= 1 – (φ–1) = 2 – φ. Therefore, tanα= 2 – φ. 1 + tan2α= 1/cos2α= 1 + (2–φ)2 = 1 + 4 + φ2 – 4φ= 6 – 3φ= 3(2–φ) = 3/φ2 . Therefore, cosα= φ/√3. 1 – cos 2α= sin 2α= 1 – φ2/3 = (3–φ2 )/3 = (3–(1+φ))/3 = (2–φ)/3 = 1/3φ2. Therefore, sinα= 1/φ√3. An anticlockwise rotation of α° about the X-axis of the Y- and Z-axes makes the positive Z-axis pass through vertex C at (0,φ,φ3) instead of the vertex A at (0,0,2φ2 ). A point P Z Z' 3 (0,-φ,φ) C A A (0,0,2φ2) P (x,y,z) Y' B C r α β Y Disdyakis triacontahedron Figure 1. Rotation of the Z-axis passing through an A vertex of the disdyakis triacontahedron so that it passes through an adjacent C vertex. has rectangular coordinates (x,y,z) and polar coordinates (R,θ,ψ), where y = rcosβ, z = rsinβ, and r2 = y2 + z2 = R2(cos2ψ+ sin 2 ψsin2 θ). and r is the projection of the position vector R of P onto the Y-Z plane. Its coordinates (x’,y’,z’) with respect to the new coordinate system with a C vertex on the Z-axis are given by: x' = x, y' = rcos(β-α) = rcosβcosα+ rsinβsinα= (yφ+ z/φ)/√3, z' = rsin(β–α) = rsinβcosα– rcosβsinα= (zφ– y/φ)/√3, where x, y & z are listed for each vertex of the disdyakis triacontahedron in Table 1 of Article 25. The new coordinates are listed here in Table 1. Fig. 2 shows that the rotation of the Z-axis creates above the XY plane three upward pointing triangles (red, yellow & violet) and two downward pointing triangles (orange & blue), whilst below the plane are two upward pointing triangles (orange & blue) and three downward pointing triangles (red, yellow & violet). There are five upward pointing triangles and five downward pointing triangles, whereas the Sri Yantra is formed from five downward pointing triangles and four upward pointing ones. However, the two pairs of triangles forming a Star of David with B (orange) vertices and C (yellow) vertices at their tips are identical in size and shape. This means there are four distinct, upward pointing triangles (red, yellow, violet & blue) and four distinct, downward pointing ones (red, orange, violet & blue), thus matching the two sets of four triangles of the Sri Yantra. Alternatively, the projection of the 10 triangles onto the XY plane (the central

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Vertex 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 30 31 32 33 34 35 36 37 38 39 40 41 42 43 44 45 46 47 48 49 50 51 52 53 54 55 56 57 58 59 60 61 62 Type A A A C B B B C C C A A A A A A A A A C C C C C C B B B A A A A A A B B B C C C C C C A A A A A A A A A C C C B B B C A A A X = X' 0 φ –φ 0 0 φ2 2 –φ 0 2 φ –φ2 φ φ2 3 φ –φ 2 –φ 3 –φ 0 φ3 –φ3 φ 2 φ 3 φ –φ –φ2 –φ3 0 3 φ 3 –φ 2 φ φ2 2φ2 2 –2φ 2 –φ 2 –φ 3 φ –φ3 0 3 φ 2 φ φ 3 –φ –φ2 –φ φ3 3 –φ 0 3 φ φ2 φ –φ3 –φ2 –φ 2 φ 2 –φ 0 φ2 –φ2 0 0 φ –φ 0 Y' = (1/√3)(Yφ+ Z/φ) 2φ/√3 –φ/√3 –φ/√3 0 –(2+2φ)/√3 (1+φ)/√3 (1+φ)/√3 (2+2φ)/√3 –(1+φ)/√3 –(1+φ)/√3 (2+3φ)/√3 –(1+3φ)/√3 –1/√3 (2+3φ)/√3 –(1+3φ)/√3 –1/√3 –(2+4φ)/√3 (1+2φ)/√3 (1+2φ)/√3 –(2+3φ)/√3 (1+3φ)/√3 1/√3 –(2+3φ)/√3 (1+3φ)/√3 1/√3 (2+4φ)/√3 –(1+2φ)/√3 –(1+2φ)/√3 (3+3φ)/√3 –(3+3φ)/√3 0 0 (3+3φ)/√3 –(3+3φ)/√3 (1+2φ)/√3 (1+2φ)/√3 –(2+4φ)/√3 –1/√3 –(1+3φ)/√3 (2+3φ)/√3 –1/√3 –(1+3φ)/√3 (2+3φ)/√3 –(1+2φ)/√3 –(1+2φ)/√3 (2+4φ)/√3 1/√3 (1+3φ)/√3 –(2+3φ)/√3 1/√3 (1+3φ)/√3 –(2+3φ)/√3 (1+φ)/√3 (1+φ)/√3 –(2+2φ)/√3 –(1+φ)/√3 –(1+φ)/√3 (2+2φ)/√3 0 φ/√3 φ/√3 –2φ/√3 Z' = (1/√3)(Zφ– Y/φ) (2+4φ)/√3 (2+4φ)/√3 (2+4φ)/√3 (3+3φ)/√3 (2+3φ)/√3 (2+3φ)/√3 (2+3φ)/√3 (1+3φ)/√3 (1+3φ)/√3 (1+3φ)/√3 (2+2φ)/√3 (2+2φ)/√3 (2+2φ)/√3 (2+2φ)/√3 (2+2φ)/√3 (2+2φ)/√3 2φ/√ 3 2φ/√ 3 2φ/√ 3 (1+φ)/√3 (1+φ)/√3 (1+φ)/√3 (1+φ)/√3 (1 +φ)/√3 (1+φ)/√3 φ/√3 φ/√3 φ/√3 0 0 0 0 0 0 –φ/√ 3 –φ/√ 3 –φ/√ 3 –(1+φ)/√3 –(1+φ)/√3 –(1+φ)/√3 –(1+φ)/√3 –(1+φ)/√3 –(1+φ)/√3 –2φ/√3 –2φ/√3 –2φ/√3 –(2+2φ)/√3 –(2+2φ)/√3 –(2+2φ)/√3 –(2+2φ)/√3 –(2+2φ)/√3 –(2+2φ)/√3 –(1+3φ)/√3 –(1+3φ)/√3 –(1+3φ)/√3 –(2+3φ)/√3 –(2+3φ)/√3 –(2+3φ)/√3 –(3+3φ)/√3 –(2+4φ)/√3 –(2+4φ)/√3 –(2+4φ)/√3 3 3 C vertex 3 6 3 6 3 6 Table 1. The coordinates of the 62 vertices of the disdyakis triacontahedron arranged according to their height (z' coordinate) measured along an axis joining diametrically opposite C vertices. A coloured section denotes a layer of vertices with the same height. The numbers between the arrows indicate the number of vertices in each layer. Vertices 4 and 59 are the C vertices. The 60 vertices between them are arranged in 15 layers. The pattern of 31 vertices below the thick, black line is the mirror image of the pattern of 31 vertices above it. 3 6 3 6 3 C vertex

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Table 2. Gematria number values of the ten Sephiroth in the four Worlds. SEPHIRAH Kether (Crown) GODNAME Metatron (Angel of the Presence) EHYEH (I am) 620 ARCHANGEL 21 314 ORDER OF ANGELS Chaioth ha Qadesh (Holy Living Creatures) 833 2 Chokmah (Wisdom) YAHWEH, YAH (The Lord) 73 3 Binah (Understanding) 67 26, 15 ELOHIM (God in multiplicity) Raziel (Herald of the Deity) 248 Tzaphkiel (Contemplation of God) 311 Auphanim (Wheels) 187 Aralim (Thrones) 282 MUNDANE CHAKRA Rashith ha Gilgalim First Swirlings. (Primum Mobile) 636 Masloth (The Sphere of the Zodiac) 140 Shabathai Rest. (Saturn) 317 50 Daath (Knowledge) 474 4 Chesed (Mercy) 72 5 Geburah (Severity) 216 Tzadkiel (Benevolence of God) EL (God) 31 ELOHA (The Almighty) 36 62 Samael (Severity of God) 131 Chasmalim (Shining Ones) 428 Seraphim (Fiery Serpents) 630 Tzadekh Righteousness. (Jupiter) 194 Madim Vehement Strength. (Mars) 95 6 Tiphareth (Beauty) 1081 7 Netzach (Victory) 148 YAHWEH ELOHIM (God the Creator) 76 Michael (Like unto God) YAHWEH SABAOTH (Lord of Hosts) Haniel (Grace of God) 101 97 Malachim (Kings) 140 Tarshishim or Elohim 1260 129 8 Hod (Glory) 15 ELOHIM SABAOTH (God of Hosts) Shemesh The Solar Light. (Sun) 640 Nogah Glittering Splendour. (Venus) 64 Raphael (Divine Physician) Beni Elohim (Sons of God) 311 112 Kokab The Stellar Light. (Mercury) 48 153 9 Yesod (Foundation) 80 SHADDAI EL CHAI (Almighty Living God) Gabriel (Strong Man of God) 246 Cherubim (The Strong) 272 Levanah The Lunar Flame. (Moon) 87 49, 363 10 Malkuth (Kingdom) 496 ADONAI MELEKH (The Lord and King) Sandalphon (Manifest Messiah) 280 65, 155 Ashim (Souls of Fire) 351 Cholem Yesodeth The Breaker of the Foundations. The Elements. (Earth) 168 The Sephiroth exist in the four Worlds of Atziluth, Beriah, Yetzirah and Assiyah. Corresponding to them are the Godnames, Archangels, Orders of Angels and Mundane Chakras (their physical manifestation). This table gives their number values obtained by the ancient practice of gematria, wherein a number is assigned to each letter of the alphabet, thereby giving a number value to a word that is the sum of the numbers of its letters. Numbers from the table are written in boldface in the article.

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layer of six vertices) creates four different pairs of intersecting triangles. There is nothing in the projection corresponding to the downward pointing central triangle, although it may be argued that the C vertex formally plays its role, being the starting point for the generation of the polyhedron, just as the triple Godhead symbolised by the innermost triangle in the Sri Yantra is the source of all manifestation. The eight distinct triangles have 24 vertices. There are five 6-sided polygons but only three differently shaped ones with 18 vertices. This because one of the polygons with A height Sri Yantra Figure 2. The 62 vertices of the disdyakis triacontahedron are projected onto the XY plane orthogonal to the axis joining two of its diametrically opposite C vertices. Continuous lines of the same colour join vertices at the same height in the upper half of the polyhedron (for clarity, only these vertices are displayed). Broken lines of the same colour join vertices at the same height in its lower half. As a guide, a golden rhombus formed by two B vertices and two C vertices is shown. vertices is the inversion of the other with C vertices on the same side of the XY plane, whilst the two others in the lower half of the polyhedron are the inversions of these. When projected onto the XY plane, they become two polygons, one the mirror image of the other. Hence, there are 42 vertices of distinct polygons. This is the number of triangles in the four layers of the Sri Yantra. 36 vertices originate in the layers above and below the XY plane. ELOHA, Godname of Geburah, prescribes them because its gematria number value is 36 (Table 2). 21 vertices and their 21 mirror images are in the XY plane. This shows how EHYEH, Godname of Kether with number value 21, prescribes the cross-section of the disdyakis triacontahedron viewed along a C-C axis. Five vertices above the XY plane on either side of the X-axis do not have counterparts directly beneath them in the lower half. Starting from above the X-axis in Fig. 2, they are the B vertex on the Y-axis, the three A vertices forming a triangle and the lowermost A vertex. Similarly, five vertices below the XY plane have no vertices above them. Starting from above the X-axis, they are the A vertex, the three A vertices forming a triangle and the B vertex. Of the remaining 52 vertices, six vertices belong to the central hexagon, leaving 23 pairs of vertices, one of which is directly above the other in the pair. One of

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The first seven polygons have 108 geometrical elements surrounding their centres. The hexagon in the XY plane has 24 elements surrounding its centre. The eight polygons have (108+24=132) elements surrounding their centres. They comprise 33 vertices and 33 triangles, where 33 (=1!+2!+3!+4!) is the number of layers of vertices that are orthogonal to A-A, B-B and C-C axes.1 The total number of geometrical elements is 140. This is the number value of Malachim, the Order of Angels assigned to Tiphareth, and of Masloth, the Mundane Chakra of Chokmah (the Zodiac). It includes 41 vertices, where 41 is the 21st odd integer. This shows how EHYEH, the Godname of Kether with number value 21, prescribes the shapes of all the polygons orthogonal to a C-C axis. The eight polygons have 66 edges. As 66 is the 65th integer after 1, the Godname ADONAI with number value 65 prescribes the eight types of polygons. The two sets of seven polygons have (2×108=216) elements surrounding their centres, where 216 is the number value of Geburah, the sixth Sephirah. All 15 polygons have 60 vertices, 120 edges & 60 triangles surrounding their centres, i.e., 240 geometrical elements. This number is highly significant vis-à-vis the inner Tree of Life because it is the number of hexagonal yods in its seven separate polygons (Fig. 4). Moreover, the first three of these polygons have 60 hexagonal yods, comparing with the 60 vertices surrounding centres of the 15 polygons, the next three polygons have 120 hexagonal yods, comparing with their 120 edges, and the last polygon has 60 hexagonal yods, comparing with their 60 triangles. The correlation shows that the 15 polygons constitute a Tree of Life pattern. The 3:3:1 division of polygons generates the pattern of their vertices, edges and triangles. It reflects the fact that the seven Sephiroth of Construction are grouped in the Tree of Life as two triads and a single one — Malkuth. The superstring gauge symmetry group E8 has 240 roots and eight simple roots. The geometry of the 15 polygons embodies this group parameter describing the unified symmetry of superstring interactions. The centres of the eight types of polygons correspond to the eight simple roots. As each gauge field is 10-dimensional, the number of space-time components of the gauge fields corresponding to the generators associated with these roots is 2400. This was found in Article 272 to be the number of vertices, edges and triangles in the faces and interior of the disdyakis triacontahedron when the former are divided into three triangles and when the interior triangles formed by edges are likewise divided. The remarkable conclusion is that this polyhedron embodies the number of components of the 240 gauge fields of E8 associated with its roots, whilst the 15 polygons formed by its vertices embody this number of gauge fields. Figure 4. Construction of the seven separate polygons of the inner Tree of Life from tetractyses requires 240 hexagonal yods. 240 Just as the 2-dimensional form of the Sri Yantra was considered in Article 35, let us now imagine the 60 vertices in the 15 layers projected onto the X-Y plane. The two pairs of intersecting triangles forming Stars of David become one pair, losing eight vertices, 12 edges and six triangles. The four 6-sided polygons become two such polygons, losing 14 vertices, 24 edges and 12 triangles. Two A vertices and two B vertices of triangles disappear. Also, two edges of triangles disappear. 18 triangles disappear altogether, leaving (60–18=42) triangles. This is the number of triangles in

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Table 4. Number of yods in the eight polygons (sectors as single tetractyses). Number of vertices Number of hexagonal yods Total number of yods Number of boundary yods 3+1=4 15 18 + 1 19 – 3 = 16 3+1=4 15 18 + 1 19 – 3 = 16 3+1=4 15 18 +1 19 – 3 = 16 6+1=7 30 36 + 1 37 – 6 = 31 3+1=4 15 18 + 1 19 – 3 = 16 6+1=7 30 36 + 1 37 – 6 = 31 3+1=4 15 18 + 1 19 – 3 = 16 Subtotal = 27 + 7 = 34 135 162 + 7 142 6+1=7 30 36 + 1 37 – 6 = 31 33 + 8 = 41 165 198 + 8 = 206 173 Total = the Sri Yantra that surround the central one. 26 vertices disappear, leaving (75–26=49) vertices. 26 is the number value of YAHWEH, Godname of Chokmah, and 49 is the number value of EL CHAI, Godname of Yesod. 3. Yod composition of the 15 polygons Now let us consider the triangular sectors of the polygons as tetractyses. Table 4 shows the numbers of yods in the eight polygons in one-half of the disdyakis triacontahedron. There are 41 yods at the corners of their 33 tetractyses, 165 hexagonal yods and 206 yods altogether. The latter is made up of 34 vertices of the 27 tetractyses in the first seven polygons and 172 yods that are either hexagonal yods (165) or vertices of the tetractyses in the central hexagon (7). Compare this with the facts that the axial skeleton of the human body has 34 single bones and that 172 bones in the axial and appendicular skeletons exist in pairs (Fig. 5). The corners and centres of the seven polygons above the XY plane symbolise the single bones of the axial skeleton. It is truly remarkable that the bone composition of the body should be defined by the yods needed to construct the eight polygons in a half of the disdyakis triacontahedron from tetractyses! It is evidence that the human body is designed according to the blueprint of the Tree of Life, of which this Catalan solid is the polyhedral realisation. The 60 tetractyses in the 15 polygons have 60 vertices other than centres of polygons and 300 hexagonal yods, totalling 360 (=36×10) yods that surround their 15 centres. This shows how ELOHA, the Godname of Geburah with number value 36, prescribes the yod population of the 15 layers of vertices. The central hexagon also has 36 yods surrounding its centre. There are 10 triangles and five 6-sided polygons. These numbers are the values of, respectively, the letters yod (‫י‬ ) and heh (‫ )ה‬making up the Divine Name YAH (‫ה‬ ‫י‬ ) with number value 15, demonstrating how it prescribes the layers of vertices in the disdyakis triacontahedron. The first six polygons have 142 yods on the edges of their 27 tetractyses. Both sets of six polygons have 284 boundary yods. The central hexagon has 31 yods on the edges

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SERwe A x 1370 = A ) X AVANTIINI Ex a) A) Wy (TX C2 The (7+7) enfolded, regular polygons, whose 94 sectors are each divided into 3 tetractyses, contain 1370 yods. Of these, 70 yods are corners of polygons, leaving 1300 other yods, where 1300 = 26x50 = 1° + 2° + 3° + 4°, 26 is the number value of the Godname Yahweh and 50 is the number value of the Godname Elohim. The number value 65 of the Godname Adonai defines the (1300/2 = 650 = 65x10) such yods associated with either set of polygons: 650 = 65 65 65 656565 65 65 65 65 = 1° 2° 3° 4° 12° 5 11° 6° 10° 9° 8° 7° The 94 sectors have 80 corners, leaving 1290 (=129x10) other yods, where 129 is the number value of Yahweh Sabaoth. The Pythagorean tetrad (4) determines the number (137) of equivalent tetractyses as 137 = 33rd prime number and 33 = 1! + 2! + 3! + 4!. The number of yods in 7 enfolded polygons other than their 7 centres = 680 = 1° + 3° + 5° + 7° + 9° + 13° + 15, where 15 is the number value of the Godname Yah.

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Table 5. Geometrical composition of the eight polygons (sectors as three triangles). Number of vertices Number of edges Number of triangles Total 6+ 1 = 7 15 9 30 + 1 6+1=7 15 9 30 + 1 6+1=7 15 9 30 + 1 12 + 1 = 13 30 18 60 + 1 6+1=7 15 9 30 + 1 12 + 1 = 13 30 18 60 + 1 6+1=7 15 9 30 + 1 Subtotal = 54 + 7 = 61 135 81 270 + 7 12 + 1 = 13 30 18 60 + 1 66 + 8 = 74 165 99 330 + 8 Total = of its six tetractyses, showing how EL, the Godname of Chesed, prescribes the shape of the polygon in the middle of the 15 layers of vertices. The 15 polygons have (284+31=315) boundary yods. Of these, 75 are vertices, leaving 240 hexagonal yods on the edges of tetractyses. We found earlier that the 15 polygons have 240 geometrical elements surrounding their centres. The two numbers agree because each sector of a polygon adds four geometrical elements, whilst, considered as a tetractys, it adds four hexagonal yods on the two edges associated with it. Both properties demonstrate that the number 240 characterises the shape of the 15 polygons. Many previous articles have discussed it in the context of the E8×E8 heterotic superstring, whose 16800 circularly polarized oscillations about its spin axis are the space-time manifestation of the 240 gauge charges associated with the non-zero roots of E 8. Likewise, there are 240 geometrical elements surrounding the centres of the 15 polygons. The disdyakis triacontahedron embodies the structure of the superstring. Now consider the sectors of the polygons divided into three triangles. Table 5 lists their geometrical composition. The first seven polygons have 61 vertices of their 81 triangles. Both sets of seven polygons have 122 vertices. The hexagon in the XY plane has 13 vertices. The 15 polygons have (122+13=135) vertices. Including the two C vertices, the disdyakis triacontahedron has 137 vertices. This is the 33rd prime number, where 33 is the number of corners of the eight polygons in one-half of the polyhedron. Its reciprocal is approximately the fine-structure constant α ≡ e2/ħc ≈ 1/137 that measures the coupling of the electric charge of an electron to the electromagnetic field. One of the most important numbers in physics is encoded in the geometry of the 15 layers of vertices of this polyhedron! It is encoded in the inner Tree of Life as the 1370 yods in its 14 polygons when their 94 sectors are each constructed from three tetractyses (Fig. 6). The first seven polygons have 270 geometrical elements surrounding their centres. The central hexagon has 60 elements surrounding its centre. Surrounding the centres of the 15 polygons are (270+60+270=600) elements made up of 120 vertices, 300 edges and 180 triangles. Constructed from triangles, the disdyakis triacontahedron has 600 geometrical elements (60 vertices, 240 edges and 300 triangles) surrounding any axis

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Order of Angels assigned to Malkuth. It is also the sum of the first 26 integers: 351 = 1 + 2 + 3 + …. + 26. This shows how YAHWEH, the Godname of Chokmah, determines the population of hexagonal yods in the seven polygons above or below the XY plane. There are 385 yods other than polygonal corners in the 81 tetractyses making up the first seven polygons, where 385 = 12 22 32 42 52 62 72 82 92 10 2 . This demonstrates the mathematical beauty intrinsic to the disdyakis triacontahedron. The Decad determines the number of extra yods needed to construct the polygons in either half of the polyhedron above or below its central plane. All eight polygons have 495 yods surrounding their centres. As 495 = 9×55 = 32 ×(12 +22 +3 2+4 2+5 2) = 32 + 62 + 9 2 + 122 + 15 2, we see how the Godname YAH with number value 15 prescribes the yod population of these polygons. It also prescribes the 470 yods on the edges of their 99 tetractyses, for 47 is the 15th prime number. All 15 polygons have 135 vertices, 780 hexagonal yods (that is, ten times the number of hexagonal yods in the central hexagon) and 915 yods in all. 900 yods surround the 15 centres, where 900 = 302 = (12+2 2+3 2+4 2 )2 = 32(1+2+3+4)2 = (3+6+9+12)2 . This = 85 = Figure 8. A 6-sided polygon has 85 yods other than its corners. This is the number of yods in the 2nd-order tetractys. illustrates the Tetrad Principle4 at work in expressing the mathematical properties of holistic systems. When the 180 interior triangles formed by the edges of the disdyakis triacontahedron are each divided into three tetractyses, they form 540 tetractyses. When its 120 faces are each divided into three triangles, they form 360 tetractyses. Therefore, the construction of the polyhedron requires (540+360=900) tetractyses. Remarkably, the same number of tetractyses creates the polyhedron as there are yods surrounding the centres of the polygons in its 15 layers! Earlier, we found that it also has the same number (600) of geometrical elements as the 15 polygons. There are 85 yods in the central hexagon (Fig. 8) other than its six corners, where 85 = 40 + 41 + 42 + 43. 84 yods other than these corners surround its centre, where 84 = 12 + 32 + 52 + 72. These are more examples of how the Tetrad Principle determines properties of holistic systems, e.g., the disdyakis triacontahedron. The seven polygons above the XY plane

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have 378 yods other than corners that surround their centres. The 15 polygons have (378+84+378=840) such yods (Fig. 9). Remarkably, they have ten times the corresponding number in the central hexagon. This number is a structural parameter of the heterotic superstring, being the number of circularly polarized oscillations in an outer or inner half of each of the ten closed curves that comprise it. The arithmetic reason for this very important encoding of superstring structure in the 15 layers of vertices is simple. The number of yods in an n-sided polygon whose sectors are each divided into three tetractyses is 15n + 1. The number of yods other than corners of the polygon that surround its centre is 14n. The number of such yods in the 15 polygons = 14Σn = 14×60 = 840. The five 6-sided polygons have 30 corners and (14×30=420) yods other than corners, as do the ten triangles with 30 corners. This equal division of 420 yods is prescribed by the Godname YAH (YH) because the letter value 5 of H (heh) specifies the number of 6-sided polygons and the letter value 10 of Y (yod) specifies the number of triangles. It was shown in Article 27 that, when constructed from tetractyses, the disdyakis triacontahedron has 840 yods surrounding any axis joining diametrically opposite vertices.5 Once again, it is remarkable that the same yod population appears in both contexts. The 840 yods in the 15 polygons other than their 60 corners consist of 60 vertices of tetractyses and 780 hexagonal yods. Similarly, the 840 yods surrounding the axis of the disdyakis triacontahedron comprise 60 polyhedral vertices and 780 10 1 2 4 8 20 3 6 ×10 9 12 18 27 60 40 80 30 120 180 Yods surrounding centres of four 6-sided polygons 90 Yods surrounding centres of 10 triangles & central hexagon = 360 + 540 270 Figure 10. When signifying tetractyses, the pattern of numbers in the Lambda Tetractys reproduces the yod composition of the 15 polygons formed by the 60 vertices of the disdyakis triacontahedron. hexagonal yods. The same 60/780 composition of yods exists in each context as well. A 120:720 division in the number 840 occurs as well. The 15 polygons have (60×2=120) hexagonal yods along their 60 edges and 720 yods inside them. The latter comprise 360 hexagonal yods along the three edges inside each sector and 360 yods made up of 120 hexagonal yods along edges of sectors, 60 vertices and 180 hexagonal yods at centres of tetractyses. The disdyakis triacontahedron has 120 hexagonal yods at centres of its faces and 720 yods that comprise 360 hexagonal yods along its 180 edges and 360 yods made up of 120 hexagonal yods on 60 internal edges of triangles, 60 vertices and 180 hexagonal yods at centres of 180 internal tetractyses. 4. The Lambda Tetractys pattern of the 15 polygons The total number of yods surrounding the centres of the 15 polygons = 15Σn = 15×60 = 900, that is, the number of yods in 90 tetractyses. They consist of the 60 vertices of the disdyakis triacontahedron (the yods of six tetractyses) and the 840 remaining yods surrounding the centres of these tetractyses (the yods of 84 tetractyses). This 6:84 division appears in the Lambda Tetractys (Fig. 10). This is the interpolated form of

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Plato’s Lambda, the ratios of whose numbers have been known for over 2,000 years to define the tone ratios of the notes of the Pythagorean musical scale.6 If we consider its integers as denoting numbers of tetractyses, then the integer 6 denotes six tetractyses whose 60 yods correspond to the 60 vertices of the disdyakis triacontahedron, whilst the sum of its nine other integers is 84, and 84 tetractyses have 840 yods, which is the number of yods other than these vertices. This is intuitively appealing because, in terms of the equivalence between the Tree of Life and the tetractys, the central yod symbolizes Malkuth, so that the 60 vertices in the 15 polygons constitute the Malkuth aspect of the disdyakis triacontahedron as the polyhedral Tree of Life as they create its form, whilst the other yods constitute its higher aspect. The Lambda Tetractys was encountered in a previous article7 in the context of the disdyakis triacontahedron as the 900 tetractyses needed to build its faces and interior triangles when each one is divided into three tetractyses. The 120 faces comprise (120×3=360) tetractyses and the 180 interior triangles formed by its 180 edges comprise (180×3=540) tetractyses. The former correspond to the sum (36) of the integers at the corners of the Lambda Tetractys and the latter correspond to the sum (54) of the integers at the centre and corners of a hexagon. Both the disdyakis triacontahedron and its 15 layers of polygons conform to the archetypal pattern of the Lambda Tetractys. Another way of comparing the 15 polygons to the Lambda Tetractys is as follows: the ten triangles and the central hexagon have 36 sectors with (36×15=540) yods surrounding their 11 centres. This is the number of yods in 54 tetractyses. The four 6-sided polygons have 24 sectors with (24×15=360) yods surrounding their 4 centres. This is the number of yods in 36 tetractyses. The sum of the ten integers is 90, which is 1 2 4 8 36 ( ) 3 6 12 48 ( ) = 36 + 48 + 6 = 9 18 6( ) 27 Figure 11. The equivalence between the Lambda Tetractys and the 90 yods surrounding the centre of the hexagon. the number of tetractyses whose yod population equals that of the 15 polygons. The four 6-sided polygons with 360 yods correspond to the integers at the corners of the Lambda, whose sum is 36, whilst the ten triangles and the central hexagon correspond to the seven remaining integers, whose sum is 54. The central hexagon itself displays the 36:54 division in the Lambda Tetractys. Regarded as a single tetractys, each sector contributes six yods, so that 36 yods surround its centre. Regarded as three tetractyses, a sector contributes nine more yods (all hexagonal), so that 54 more yods are added to the hexagon. However, unlike the Lambda Tetractys with the number 6 at its centre, a group of six yods cannot be distinguished in this addition. The only way the comparison may be extended is to consider the six hexagonal yods lying on edges of tetractyses inside each sector as contributing to the number 36 and the remaining nine yods as contributing to the number 54. In this way, the central number 6 denotes the number of corners of the

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hexagon (Fig. 11), as one would expect, intuitively, as the corners are the shapedefining yods, a quality consistent with the meaning of Malkuth symbolized by the yod at the centre of a tetractys and therefore with the number 6 that occupies this position in the Lambda Tetractys. The hexagon in the XY plane with A vertices at its corners is therefore analogous to the complete set of 15 polygons. As found several times earlier, the properties of the latter are exactly ten times the corresponding ones of the former. The whole is contained in another whole. The simple, arithmetic reason for this is that the central hexagon has six sectors, whilst the 15 polygons have 60 sectors, that is, ten times as many, so that any property of the sectors of the hexagon become multiplied by 10 for the corresponding properties of the complete set of polygons. References 1 Phillips, Stephen M. Article 25: “The 33 Vertex Sheets of the Disdyakis Triacontahedron Signify the 33 Tree Levels of Ten Overlapping Trees of Life,” http://www.smphillips.8m.com. 2 Phillips, Stephen M. Article 27: “How the Disdyakis Triacontahedron Embodies the Structural Parameter 1680 of the E8 ×E8 Heterotic Superstring,” http://www.smphillips.8m.com/article27.pdf, pp. 4–5. 3 Ibid, p. 20, Table 4. 4 Phillips, Stephen M. Article 1: “The Pythagorean Nature of Superstring and Bosonic String Theories,” http://www.smphillips.8m.com/article01.pdf, p. 5. 5 Ref. 2, p. 19. 6 Phillips, Stephen M. Article 11: “Plato’s Lambda — Its Meaning, Generalisation and Connection to the Tree of Life,” http://www.smphillips.8m.com, and Article12: “New Pythagorean Aspects of Music and Their Connection to Superstrings,” http://www.smphillips.8m.com/article12.pdf. 7 Phillips, Stephen M. Article 26: “How the Seven Musical Scales Relate to the Disdyakis Triacontahedron,” http://www.smphillips.8m.com/article26.pdf, p. 29.