6.The Labyrinth

Fig.05
For
many centuries the people of Western-Europe are familiar with the form and
presence of the Cretan Labyrinth (Fig.05). Brought with them from the eastern
part of the Mediterranian by the Crusaders in the 12th century, this ancient
symbol found it's way relatively quickly into the hearts and minds of the people
in the West. Here it was incorporated into several of the new Cathedrals that
were build around this time in the Gothic style. Due to the labyrinthine shape
of this symbol, the thentimes Roman Catholic Church found it appropriate to see
in this ancient symbol a perfect representation of the long and troublesome road
that all mortals have to follow on their way to salvation. In later times the
Labyrinth became an equivalent for a pilgrimage to Jerusalem, hence the name
'Chemin de Jerusalem' which is sometimes used for this symbol. In the Greek
mythology however, the symbol is exclusively connected with the myth of King
Minos, the hero Theseus and Ariadne who helped him to slay the terrible Minotaur
at the heart of the Labyrinth in which it was locked up. Although the symbol of
the Labyrinth was found in abundance on the Island of Crete it is not at all
certain that this is also the place from which this ancient object originates.
When we keep the close trading ties that existed between the Minoan and the
Egyptian world in mind, it is even quite likely that the symbol of the Labyrinth
stems from the latter and is probably at least 5000 years old. 
The
mathematical properties of the Labyrinth firmly support this supposition. It
must be said that it is extremely difficult to examen this particular symbol,
mainly because of the almost hypnotising effect it has on anyone who casts a
glance on it. Although the symbol is called a Labyrinth, there is nothing
labyrinthine at all to find in it's features. The winding path that goes through
it is the only one which can be followed and leaves no choice in the direction
to take (except to return). A close examination learns that the circular form
can be devided into four quadrants and that the various loops of the path never
exceed more than two of these quadrants. This seemingly basic rule is
followed-up throughout the entire Labyrinth and gives it the first indication of
order and consistency. It is possible that the circular form was especially
chosen initially to attract and subsequently to deter any onlooker and if this
was the case this would suggest that we need to free the winding path from it's
circular form in order to examen it more closely. The moment we do this, an
extraordinary thing happens. On a piece of squared notepaper we can actually
'straighten' the circular loops of the path, starting out from the lower edge or
'entrance' of the Labyrinth and on the lower part of the notepad (Fig.06). We
start out with a vertical line which has a length of three squares and which
represents the distance from the edge of the Labyrinth to the spot where the
first loop begins. For every loop that covers one quadrant we use the length of
two squares sideways and for every loop that covers two quadrants we use the
lenght of four squares sideways. At all points where the loops change in
direction, we draw a vertical line with the length of one square in an upward
direction. For the distance between the point where the last loop ends and the
centre of the circular Labyrinth we again use the length of three squares on our
notepad. Drawing the labyrinthine path this way generates a most bizarre but
essential line on which the geometry inside the Labyrinth is based. The centre
of this extraordinary baseline can easily be found and when a horizontal and a
vertical line are drawn through this centre, the reversed and also mirrored
quality of the line-halves becomes visible (Fig.07).

Fig.07
At the
places where the dividing line crosses the actual line of the path we find the
exact points from where the geometry takes shape. Added to these three points
are four more which are derived from a diagonal line that connects beginning and
end of the path and which runs exactly through the centre. The strange thing
about these points is that they are not there by chance but in fact dictate the
position and proportion of the various geometrical forms which are part of a
most splendid geometrical composition. Once the straightened baseline of the
Labyrinth is established, the geometry almost automatically takes over. Two
large circles can be drawn with their centre in A and B and with a radius from
their centre to the beginning or end of the baseline (Fig. 08).

Fig.08
When a third and smaller circle is drawn which has
it's centre in the middle of the baseline and a radius from this point to where
both large circles intersect, we see that the line of this circle goes exactly
through points C and D. The result of this drawing of circles is an image which
shows once again that the seemingly random position of the various points on the
baseline are in fact well calculated and demonstrate a high sense of balance and
proportion. Besides this, another remarkable thing becomes clear when we take a
close look at the baseline of the Labyrinth. The beginning and end of this line
are the same and the true centre of the baseline, and therefore also the true
centre of the Labyrinth, is not the middle of this circular symbol but a point
that is situated exactly between the middle of this circular form and it's upper
edge. Once we are arrived at this stage of unraveling this ancient symbol, it
can no longer be denied that it proves to be much, much more than just a
decorative object with a nice myth attached to it. All we seem to need here is a
pair of compasses, a ruler and a good sense of logic. The circles almost invite
us to think of a logical next step, for instance to use the length of their
radiusses. Measuring out the length of the radius on the circumference of the
respective circles results in the appearance of two hexagrams, one in the small
and one in the large circle (Fig. 09).

Fig.09
A next
geometrical form can be derived from the points which depict the centre of both
large circles. When we take the distance between the centres of both large
circles and use this measurement to draw a square which is centered on the
composition, a remarkable thing happens (Fig. 10). The most upper point of the
large and the small hexagram and the left hand upper corner of the square appear
to be exactly in line. And when we use the distance between the centre of the
path and the upper point of the large hexagram and measure-out this distance on
the left hand large circle, a pentagram appears inside this circle.

Fig.10
The left hand upper point of this pentagram is also
in line with the upper points of both hexagrams and the left hand upper corner
of the square. This pentagram can also be obtained by drawing a line from the
right hand lower point of the large hexagram to the topside of the left hand
large circle. The places where this line touches on the left hand circle will
give the distance between two points of the pentagram and this distance can be
measured out on the circumference of this circle. The initially bizarre baseline
of the Labyrinth proves to be not that bizarre after all for it generates a
number of specific points which in their turn generate a well balanced and
extremely close-fitting geometrical composition. Several alignments exist inside
this composition, especially between the pentagram and the large hexagram (Fig.
11).

Fig.11
The relative positions of both geometrical forms
which were dictated by the relative distances between the various points in the
labyrinthine path suggest that there is a certain geometrical interplay at work
inside this composition. Besides all this, a last and most remarkable
geometrical form can be derived from this composition. When we extend the
vertical lines of the square and draw a line over the topside and bottomside of
both large circles, a rectangle appears in the composition. This rectangle
increases the meaning of the Labyrinth in an enormous way for the length of it's
sides appear to possess the exact proportions of the Golden Number (fig.
12).

Fig.12
This cosmic rule governs all life on this planet and
can be seen for instance in the distance between buds on a branch or in the
pattern of certain seashells. All in all the Labyrinth harbours a most
fascinating world of thought that seems to demonstrate the laws of the universe
through geometry and in this case a specific cosmic reality through the
interplay between the various geometrical forms. This geometrical interplay
which dictates size, form and position of all it's components provides us with
the very key by means of which we can actually read the ancient structures. All
we have to do is search hard for the inherent geometry inside these structures
and then apply our key. The geometry we are looking for inside the structures
should be the same as the geometrical components inside the Labyrinth. Next to
circles, we should look for hexagrams, pentagrams, squares, triangles, hexagons
and pentagons. Besides this, the geometrical forms we might find must stand in a
close relationship to and must preferrably be generated by each other. Much the
same as is the case inside the geometry of the Labyrinth, the major working
elements inside the geometry of the structure must be the hexagram and the
pentagram. Geometrically speaking, both these forms have the closest
relationship inside the Labyrinth. All other geometrical forms seem to be solely
there for the purpose of establishing the relative proportions and positions of
these two. If the hexagram and the pentagram are the major players inside the
geometrical clockwork, we should find the numericals of Precession in the
numerical values of these two or in their combination. And so we do. The cycle
of Precession gives the cyphers: 360°(the circle of the Ecliptica), 1°(72
years), 30°(2160 years), 12 (the number of signs of the Zodiac), 25.920
(12x2160), and many variations on this data like: 432(6x72), 144(12x12 or 72x2),
108(72+36), 360(5x72 or 6x60) and so on. The hexagram generates the cyphers:
360°(circle), the angle of 60°, the angle of 30°, 12 (the number of spaces of
30° on the circle), 6 (the number of spaces of 60° on the circle. The pentagram
gives the cyphers: 360°(circle), the angle of 108°, the angle of 72°, the angle
of 54°, the angle of 36°, 5 (the number of spaces of 72° on the circle). It is
obvious that all of the numerical data of the cycle of Precession is also
present in the combination of the hexagram and the pentagram. It is therefore
very well possible to design and build a structure with geometrical features
that represent in full detail the way in which Precession works. Let's
investigate whether this is the case with the ancient structures that we can
still see today.
