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Wednesday, 24 July 2013 19:09

Counting 2-D and 3-D

What came up this month is numbers negotiate between 2-D and 3-D.

Euclid wrote, a point has no part. The point is whole. All parts inherently carry the whole. The point and circle are forms of unity scaled up and down beyond our limited perception of concentricity. Unity is singular; one unit is always in plural. Both inherently carry unlimited endless potential in generations of parts.



To start, DRAW a point. Draw a single regular curved line ending at the starting point. Make a second point approximately centered in the circle.  Starting from the second point draw a single curved line, the same size of the first, around the first point ending at the second point. You will have two intersecting circles from two points showing four points.

                001draw circle
Above) the two circles where the circumference is part inside to the other, both sharing the same measure. They do not have to be exact, you can draw free-hand for the same results.

 

            002folding circle                

Above) to FOLD a circle (mark any 2 points on the circumference, touch them and crease) two more points are generated on the circumference (end points of diameter) making four points, the same number of points as the drawing above. Two points on one circle show four points. To the right all four points have been connected with straight lines showing the 6 relationships between them (10 parts.)


Below) continue drawing on the circles by connecting all four points with straight lines, each starting and ending on the circumferences. All connections will be chords showing 6 diameters (realtionships.) There are 10 equilateral triangles, 5 pointing up and 5 in opposite direction. There are other equilateral triangles of different sizes within the two intersecting hexagons along with many other unmarked
shapes and relationships between the points. 

         003dc 3 counting

Above right) by shading one triangle in opposite orientation on the two ends reveals a rotation-slide symmetry.

 

             004reg icosa

 Above left) a drawing of two circles with 4 triangles shaded to show a reflective symmetry on the vertical axis of both ends.

Above right) are two images of the icosahedron. One shows the solid and the other the placement of 4 triangles equally around. The properties of the drawing and the folded icosahedron are the same but with different symmetries; one is 3-6 and the other a 3-5 symmetry.

2-D as compression of 3-D opens unseen connections. 10 points are counted on the viewed side and 2 more points on the underside of the drawing, 12 points in all. There are 10 individual equilateral triangles showing and 10 underneath making 20 triangles planes. There are 19 lines (edges) on one side and 11 on the underside making 30 edges. 

In the drawing are encoded the properties for the icosahedron; 12 points, 20 planes and 30 edges. When using four circles folded into a tetrahedron, opened and joinied in a tetrahedron net, then reformed to an icosahedron will show four open triangle faces (see http://wholemovement.com/how-to-fold-circles) The four shaded triangles in the drawing corresponds to the open triangles of the folded icosahedron triangles.

 

Below left) fold two circles to a 4-frequency grid (blog http://wholemovement.com/blog/itemlist/date/2011/2?catid=140) and join them to the arrangement of two intersecting circles. This shows two large triangles reformed and joined to show a symmetrically opening on each side through the inside space. This is one of many possible combinations by joining these two folded circles.

          
007img 0143e2                005dc 2 counting full3

Above right)  is a 2-D grid of two intersecting circles with shaded openings seen in the folded circles to the left.
This reveals full information in the first construction by Euclid in Proposition No.1 (proving an equilateral triangle.)

                                     006dc 2 counting full2

Above) folded four-frequency diameter circle. The infolded hexagon is optional in the folding. 

 

Below) two views of the configuration from above with 16 triangle surfaces (front and back) stellated with 16 tetrahedra made from 8 circles. The 4 open triangle planes are left open. 

                        008img 0165e2

                        009img 0148e

 

Below) two more reconfigurations from the same circle grid are added to one end. All the triangle planes are congruent giving many options for attachments developing a variety of systems, this being only one possibility.

                               010img 0194e

 

Below) different views as another unit is added to the opposite end extending the system.


                               011img 0206e

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                              015img 0222e2

 

Below) two views of an open spherical unit from four circles that is added.

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 Above) another two circles make an open icosahedron (previously described) that is joined to the original body of the stellated system. Because of the congruency of triangle planes from a single folded grid, reconfigurations can be attached in many different places creating a wide variety of complex systems.

 

Below) are different views and repositioning between two segments.

018img 0286e2

 

019img 0285e

 

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 Above) there is a folded hinged unit in the system allows for some articulation in changing positions between two sections.

 

 

 

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 Above) are five basic reformations of the 4-frequency folded grid that were used to reform the units used for developing this system coming from drawing two intersecting circles. This just happens to be where my interest at the time took me. There are many hundreds of directions to explore with this kind of developing process. Possibilities are different for each folder since no two people will respond in the same way to make the same choices or reformations, yet all coming from the same folded grid.

 

 

                              025img 0333e

 

 

 By understanding how drawings are abstract representations that hold compressed information from 3-D configurations we can use counting to help make connections between 2-D and 3-D about what otherwise goes unnoticed, where each is held in separation from the other. Reality is not flat, nothing is separated; it is spatial and we flatten it to make a simple 2-D conceptually organized system, using numbers to give location and meaning. Numbers represent groupings where every fold is circular movement that changes the numbers. To get the most from a circle we must fold it, from numbers we must count. To get the most from nature we must pass through the experience necessary for understanding. Looking at the picture does not count as the experience

                          

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