The
27 Trigrams of Liber XXVII can be put into 4 categories, based on their
structure. The number of Tao or null lines in each Trigram determines what
category it belongs to. There is only one Trigram that has three Tao lines;
this is the Zero, which is in a category by itself. The remaining 26 Trigrams
occur in three sets of 6, 12, & 8, and this fact allows the modeling of
this group of 26 components on the multi-dimensional grid of the
octahedron.
The regular octahedron is
one of three regular polyhedra that are composed solely of triangular
sides. As with all polyhedra, the three
major visual aspects that it displays are Corners, Edges and Sides, or Vertexes,
Vectors, and Faces. It so happens that
in the octahedron these aspects occur in three sets: 6 vertexes, 12 vectors,
and 8 faces. This allows a one-to-one
correspondence between the 26 ‘topological aspects’ and the 26 non-zero
Trigrams.
The
Trigrams naturally occur as 13 sets of polarities, and this fact will be used
to determine how the correspondence is achieved between the 26 aspects of the
octahedron and the 26 Trigrams. On the
octahedron, all vectors are physically opposite other vectors, when a line
connecting them goes through the center of the figure. The same is true of the vertexes and the
faces. So these physically opposite aspects will be attributed to Trigrams that
are also polar opposites.
The
six initial Trigrams of the system are attributed to the six vertexes of the
octahedron, such that each Trigram-vertex is opposite its own polar
Trigram. Thus the Trigrams for 1 and 2
are opposite one another, as are the Trigrams for 3 and 6, and those for 9 and
18. Once this has been done, all the
remaining attributions to the vectors and faces are achieved by utilizing the
numerical characteristics of the vertexes.
Each
vector is attributed to a Trigram whose value is the sum of the two vertexes
that form the ends of that vector. For
example, the ‘4’ vector connects the two vertexes whose values are 1 and
3. Opposite to this, the ‘8’ vector,
connects the vertexes whose values are 2 and 6. So by adding the vertexes of any vector, you get the value for
that vector.
Similarly,
each face is attributed to a Trigram whose value is the sum of the three
vertexes that form the corners of that face.
For example, the ‘22’ Trigram is attributed to the face whose corners
have the values of 1, 3, and 18. The
face opposite to this is attributed to the ‘17’ Trigram, because the corners of
that face are the vertexes whose values are 2, 6, and 9. This simple method allows for numerical
balance in every direction, throughout the matrix of the octahedron. The sublime beauty of this balance is seen
in the fact that in every case, polar opposite Trigrams are attributed to
opposite aspects of the octahedron matrix.


A
curious side-effect of this matrix is that if one considers the vertexes valued
at 9 and 18 to be the neutral poles of spin of the octahedron, the four
Trigrams with the values of 4, 5, 7, & 8 form the Equator of the
octahedron. Since the four corners of
this Equator are attributed to Trigrams with the values of 1, 2, 3, & 6,
the entire Equator represents the sequence of numbers from 1 to 8, all of which
can also be represented as Bigrams.
We
now have a systemic matrix that involves an Equator whose four corners are the
four Elements, and whose edges are four Zodiac signs, one of each Elemental
type.
Platonic Models of Trigrammaton: The Cube
The
method of attributing Trigrams to the octahedron can also be used with the
cube. Both the cube and the octahedron
have 26 cases of the three primary topological aspects; the octahedron has 12
vectors, 8 faces, and 6 vertexes, while the cube has 12 vectors, 6 faces, and 8
vertexes. The cube is therefore called
the “dual” of the octahedron, since one figure can be changed into the other by
reversing their vertexes and faces. In
terms of the Trigrams, this means that they can be modeled equally well on the
cube, with the same mathematical results and the same polar Trigrams opposite
one another.
As
the figure shows, the six vertexes of the octahedron have become the six faces
of the cube, and these faces, or planes, remain the primary set of opposites
that determine the whole figure. The
vector where two faces meet equals the sum of those two faces, while the vertex
where three faces meet is the sum of those three faces. As with the octahedron, the figure can be
oriented so that the 9 & 18 Trigrams are the upper and lower faces, while
the remaining faces are the four Elemental Trigrams, divided by the first four
Zodiac Trigrams to form the same Equator found in the octahedron, consisting of
all the numbers from 1 to 8.

This
cubical array can be used as a template for the layout of a magical temple,
with the East wall being Air, the West wall being Earth, the North wall being
Water, and the South wall being Fire.
The floor and ceiling would then be the poles of the system. This layout provides for the same Elemental
directions as those based on the sequence of the Classic Trigrams, but on the
cube the I Ching Trigrams are the corners of the room, not the perimeter.
The
cubical matrix can also be elaborated by the creation of a three-frequency
cube, i.e., a cube made up of 27 smaller cubes. Each of these smaller cubes can be attributed to one of the 27
Trigrams, with the Zero Trigram occupying the center of volume of the figure,
the sole inner cube, invisible on the surface of the larger cube. The eight corner cubes are thus the Classic
Trigrams. The six cubes on the center of each side are the Elemental Trigrams,
and the twelve remaining cubes on the edges are the Zodiac Trigrams. These all retain their relative positions,
as in the skeleton cube, with opposite cubes being attributed to opposite
Trigrams. Of course this is difficult
to illustrate in two dimensions, but the essential characteristic is that the
path that joins any two opposite Trigrams travels through the central Zero
cube. (Note that the three-frequency
cube is the smallest subdivision of a cube such that it has a nuclear cube).
Seen
from above, the levels of the cube look like this:
Top
Level: 17 11 14
15
9 12
16 10 13
Middle
Level: 8 2 5
6 0 3
7 1 4
Bottom
Level: 26 20 23
24 18 21
25 19 22

Another cube image can be found on the C.F.
Russell website. His work touched upon
areas directly related to Trigramaton,and his planetary cube is essentially the
same layout I have described above, but concerned only with the eight corners:
http://www.cfrussell.homestead.com/files/cubed2.htm
Platonic
Models of Trigrammaton: The Tetrahedron
The cube and the octahedron
are two of the five Platonic solids, along with the icosahedron, dodecahedron,
and the tetrahedron. Like the former
pair, the icosahedron is the “dual” of the dodecahedron; one has 30 vectors, 12
vertexes, and 20 faces, while the other has 30 vectors, 20 vertexes, and 12
faces.
The tetrahedron is in the
curious position of being its own “dual”, for it has 6 vectors, 4 vertexes, and
4 faces. When the number of the
vertexes and faces reverse, the same total, and thus the same figure, is
created. But one would be mistaken to
think that these are one and the same tetrahedron. They are in fact a pair of distinctly positive and negative
tetrahedra. This fact can be
illustrated by attributing the Trigrams to the tetrahedron, as was done with
the octahedron and the cube.
As
in the previous examples, the six Elemental Trigrams remain the additive
units. Thus the Elemental Trigrams are
attributed to the six vectors of the tetrahedron, with the opposite Trigrams
attributed to opposite vectors. Each
vertex is the meeting point of three vectors, and the sum of these vectors is
the value of that vertex. Similarly,
each face is bounded by three vectors, and the sum of these three vectors is
the value of that face.
This
is where the positive and negative tetrahedra appear, for there are two, and
only two, distinct layouts of the six vectors such that the opposite Trigrams
remain opposite. One layout results in
the even numbers 14, 16, 22, & 26 being the vertexes while the odd numbers
13, 17, 23, & 25 are the faces. The
other layout results in the odd numbers being the vertexes and the even numbers
being the faces. The reason that there
are two possible layouts is because, unlike the other Platonic solids, each
vertex of a tetrahedron is opposite a face, and not another vertex. This allows the tetrahedron to be its own
dual, with the values of the four faces and the four vertexes changing places.
These
tetrahedra then show the integration of the 6 Elemental Trigrams with the 8
Classic Trigrams to make up the 14 cases of the tetrahedron’s primary
topological aspects. Lest we forget the
Zodiac Trigrams, these make up the 12 cases of the fourth topological aspect:
the vertex-angles.
Each face of the regular
tetrahedron is an equilateral triangle: 3 angles times 4 faces equals 12 angles
in all. Each of these angles is one of
the Zodiac Trigrams, having the value of the two vectors that meet to form that
particular angle. Thus the tetrahedron
provides the primary model for the interaction of all the Trigrams. Each Element is a single line, a
vector. Where two intersect is an
angle, a Zodiac Trigram. Where 3
vectors intersect or interlock is a vertex or a face, an I Ching Trigram.
In
the Positive Tetrahedron, Trigrams 1, 3, & 9 form the edges of one
triangular face, whose value is the 13 Trigram and whose angles are 4, 10,
& 12; the three Fire signs. The
Negative Tetrahedron has Trigrams 2, 6, & 18 forming the edges of one face,
whose value is 26 and whose angles are 8, 20, & 24, the three Water signs
of the Zodiac.
Vectors Face Angles of Face Opposite Vertex
Pos.
1, 3, 9 13 4, 10, 12 26
2,
6, 9 17 8, 11, 15 22
2,
3, 18 23 5, 20, 21 16
1,
6, 18 25 7, 19, 24 14
------------------------------------------------------------------------------------------
Neg. 2, 3,
9 14 5, 11, 12 25
1,
6, 9 16 7, 10, 15 23
1,
3, 18 22 4, 19, 21 17
2,
6, 18 26 8, 20, 24 13


It
should be noted that the arrangement of the Trigrams can also be accomplished
symmetrically on the two remaining Platonic solids, the icosahedron and
dodecahedron. In those cases, however,
the number of topological aspects is so large that some of the numbers have to
be repeated in order to flesh out the matrix.
The
trigrams can also be assigned to the cuboctahedron, the figure that Buckminster
Fuller called the ‘Vector Equilibrium.’
Although not a Platonic solid, the cuboctahedron is the keystone of all
of his Synergetic Geometry.
Archimedean Model of
Trigrammaton: The Small Rhombicuboctahedron
Another geometric figure that can display the interactions
of the Trigrams is one of the Archimedean solids, the Small
Rhombicuboctahedron. This is a 26-sided polyhedron onto which the 26 Trigrams
can be attributed. 8 Sides are
triangular, and these are the eight I Ching Trigrams, the other 18 sides are
square. To see a 3D representation of this figure, follow this link:
http://mathworld.wolfram.com/SmallRhombicuboctahedron.html
The diagrams that follow were inspired by the work of Fr.
Zalanes, and revised according to the mathematics of the Trigrams.
The first figure is the rhombicuboctahedron laid out in
two dimensions, with the numbers from 1 to 26 arrayed on it. One aspect of immediate note is that all
numbers that reduce to the same single digit are in the same row together; e.g.
10, 1 and 19 all reduce to the numeral 1, and are all in the top row.
When folded back into a 3-D shape, numbers that are Antigrams
will appear on opposite sides of the polyhedron.

The
next figure is the same layout, but using Trigrams instead of decimal numerals.
Antigrams
are on squares or triangles of the same color.

The
next image shows the letters of the English Alphabet instead of their Trigrams.
(The
letter I is placed on 26 to complete the set, but its gematria value is
actually 0).

The
next image shows the letters of the Futhark Runes. By tradition these 24 letters come in three sets of eight, and so
are attributed to the numbers 1 – 8, 10 – 17, 19 – 26. Thus the top row is the first letter of each
of the three ‘aett’ of the runic system, and each of the three ‘aett’ has its
own column. A lovely symmetry.
