#discretized geometry

Quantum Naughts and Crosses Revisited - VIII
The Cube Sliced and Diced
Transliteration Series: Section F_H(n)

(continued from here)

We come now to the  Taoist/Cartesian  transliteration sections of the three-dimensional cube.^[1] The frontal F_H section seen below is the Cartesian xy-plane we’re all familiar with from the 2-dimensional version of the Cartesian coordinate system with the third Cartesian dimension (z) added to the labeling of points.  This gives us nine distinct Cartesian triad points: four vertices, four edge centers, and one face center.  For all of the points, the third Cartesian dimension (z) is constant in this slice,  and the vector value is positive (located toward the viewer with respect to the z=0 value of the z-axis or F_HE plane which we’ll be viewing in a future post.)

The diagram shown here relates changing and unchanging trigrams of the I Ching to corresponding Cartesian ordered triads. Descartes views each of his ordered triads as referring to a single point having substantive reality in Cartesian geometric space. The I Ching and mandalic geometry, on the other hand,  regard the trigrams as evanescent composite states of being in a spacetime which is ever-changing. They are relational elements in some ways analagous to the subatomic entities of particle physics.

Accordingly, it should be further understood each “point” here, though shown as a flat “square”,  has a third dimension implied, and is therefore actually a “cube”, only one face of which is seen.^[2]  Mandalic geometry considers the point a fictional device which actually refers to a common intersection of three or more planes in a three-dimensional context, or two or more lines in a two-dimensional context.  Moreover, mandalic geometry is a discretized geometry,  and the trigram must be considered as having a distributed domain of action. This is illustrated in all the Cartesian transliteration points by distributing eight copies of trigrams with appropriate changing and unchanging lines among eight vertex-analogues of each Cartesian point.

The key to labeling of points in this section^[3]  and  all those to follow can be found here.  Additionally,  by tradition,  adding an “x” to a yin line indicates it is a changing line and adding an “o” to a yang line indicates it is a changing line.  A changing yin line is considered an old yin line which is changing to a yang line;  a changing yang line,  an old yang line that is changing to a yinline.

Vector addition of two or more yinlines yields a yin line as result. Vector addition of two or more yang lines gives a yang line as the result. Vector addition of an unequal number of yin lines and yang lines yields as result that vector (yinoryang) in excess. Vector addition of an equal number of yin lines and yang lines gives as result Cartesian zero which, in  mandalic systematics  is to be considered a vector (direction)  rather than a scalar (magnitude).  This goes far in explaining how  the I Ching and Taoism managed without an explicit zero.

Thezero was implicit or understood without using a special symbol of designation.  Moreover,  it was conceived as representative of an order of reality  entirely different from  that distinguished by  the Western zero. It is,  however,  fully commensurate with  Cartesian coordinate dynamics. It is this alternative zero,  with its extraordinary capacities,  that provides access to potential dimensions  and to different amplitudes of dimension. This will be further elaborated in a future post where we will address how Boolean logic impacts what we’ve covered here.

For now simply note that the changing yin Line and changing yang Line  in the horizontal first dimension (x)  in each “point” shown in the middle column add to zero,  not the  zero of scalar magnitude  though, but the zero of vector equilibrium.

Section F_H(n)

In this section of the cube,  as in all frontal sections,  the third Line/dimension (z) never changes; the second Line/dimension (y) changes  only in columns,  as one progresses up or down;  the first Line/dimension changes only in the rows, progressing left or right. This is just a consequence of viewing  a two-dimensional Cartesian
xy-plane in context of a section of the three-dimensional Cartesian
xyz-cube. Although not the manner in which we are accustomed to viewing the plane,  it is nonetheless fully compatible with ordinary Cartesian coordinates.  It is simply an alternative perspective,  one more suited for analysis/demonstration of trigram relationships in a Cartesian setting.

(continuedhere)

Notes

[1] This should be viewed as a work in progress. I’m still feeling my way with this so the content and/or format may change in the future. What is demonstrated here does not yet take into account  the manner in which Boolean logic relates to the distribution of changing and unchanging trigrams nor does this series of cube sections include the all-important geometric method of composite dimension. As described,  this is simply a Taoist notation transliteration of Cartesian coordinate structure.  The meat and potatoes of the matter is yet to come.  Of particular note here, though,  is the fact that even at this early stage of translation to a version of mandalic geometry that can be considered comprehensive,  what is possibly best described as a decussationbetweenyinandyang lines is already evident at every Cartesian triad point containing a “Cartesian zero”.  Worth mentioning here, this will be a key feature addressed in future posts.

[2]Point,  square,  and cube,  have all been placed in quotation marks to indicate that what is being referred to here is actually a different category of objects or elements which should in some sense be understood as relating to fractals or fractal structure and of a different dimensionality entirely than are those ordinary geometric objects. The admittedly deficient terminology used here is necessitated by the fact that sufficiently appropriate vocabulary terms to describe the reality intended do not currently exist,  or if they do are not as yet known to me.  Since we are representing a Cartesian point (ordered triad) as a quasi-cubic structure here,  it must have  a near face (n) and a far face (f) in each section with respect to the viewer. The chart displayed details the near face (n) of Section F_H.

[3] This is the frontal section through the cube nearest a viewer. It is Descartes’ xy-plane with label of the third dimension (z) added so each point label shown is a Cartesian ordered triad rather than an ordered pair as textbooks generally show the plane. Why the difference?  Because the geometry texts are interested only in demonstrating the two-dimensional plane in isolation,  whereas we want to see it as it exists in the context of three or more dimensions. Cartesian triads are shown by convention as (x,y,z),  so the xy-plane  emerges from the first two coordinates of the points in this section, and all the z-coordinates seen here are positive (+1). The F_E plane has all of its x and y coordinates identical to those seen here but its z-coordinates are all negative (-1). The F_HE plane has all the x and y coordinates identical to those seen here but its z-coordinates are all zero (0).

© 2015 Martin Hauser

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