12 Degrees of Freedom
"By tetrahedron, we mean the minimum thinkable set that would subdivide Universe and have interconnectedness where it comes back upon itself. The basic structural unit of physical Universe quantation, tetrahedron has the fundamental prime number oneness."

Bucky Fuller.  Synergetics.
620.03

 

Structure In Nature

The mathematics involved in synergetics consists of topology combined with vectorial geometry. Synergetics derives from experientially invoked mathematics. Experientially invoked mathematics shows how we may measure and coordinate omnirationally, energetically, arithmetically, geometrically, chemically, volumetrically, crystallographically, vectorially, topologically, and energy-quantum-wise in terms of the tetrahedron.

A tetrahedron is a triangularly faceted polyhedron of four faces.It is unique as a system, for it is the minimum  and simplest structural system in Universe.Tetrahedra can be experimentally demonstrated to be the optimally economic, most comprehensive structurally integrated systems in Universe.

There is not one but many mathematics and for numerous reasons each fails to satisfy the members of the opposing schools.  It is now apparent that the concept of a universally accepted, infallible body of reasoning -- the majestic mathematics of 1800 and the pride of man -- is a grand illusion.

Morris Kline. Mathematics: The Loss of Certainty.
Competing mathematical systems need only demonstrate internal consistency based on a set of accepted initial assumptions.  They did not have to necessarily provide an accurate representation of the physical world.
How do bees do it? The honeycombs in which they store their amber nectar are marvels of precision engineering, an array of prism-shaped cells with a perfectly hexagonal cross-section. The wax walls are made with a very precise thickness, the cells are gently tilted from the horizontal to prevent the viscous honey from running out, and the entire comb is aligned with the Earth’s magnetic field. Yet this structure is made without any blueprint or foresight, by many bees working simultaneously and somehow coordinating their efforts to avoid mismatched cells.

The ancient Greek philosopher Pappus of Alexandria thought that the bees must be endowed with “a certain geometrical forethought.” And who could have given them this wisdom, but God? According to William Kirby in 1852, bees are “Heaven-instructed mathematicians.” Charles Darwin wasn’t so sure, and he conducted experiments to establish whether bees are able to build perfect honeycombs using nothing but evolved and inherited instincts, as his theory of evolution would imply.


Why hexagons, though? It’s a simple matter of geometry. If you want to pack together cells that are identical in shape and size so that they fill all of a flat plane, only three regular shapes (with all sides and angles identical) will work: equilateral triangles, squares, and hexagons. Of these, hexagonal cells require the least total length of wall, compared with triangles or squares of the same area. So it makes sense that bees would choose hexagons, since making wax costs them energy, and they will want to use up as little as possible—just as builders might want to save on the cost of bricks. This was understood in the 18th century, and Darwin declared that the hexagonal honeycomb is “absolutely perfect in economizing labor and wax.”


"Why Nature Prefers Hexagons"

The tetrahedral and vector equilibrium models in the isotropic vector matrix (what Bucky discovered is the coordinate system within which Nature carries out her transactions) provide an absolute accommodation network of energy articulation, including the differentiated proclivities of:

associative-disassociative

convergent-divergent-oscillating-pulsating

dynamic-kinetic

energetic-synergetic

entropic-syntropic

expansive-contractive

explosive-implosive

gravitational-radiational

hydraulic-pneumatic

importing-exporting

inside-outing-outside-inning

involuting-evoluting

omnidirectional-focal push-pulling

radial-circumferential

rotational-ovational gearing

synchronous-dissynchronous

torque-countertorque

turbining-counterturbining

vector-tensor
together with the integrated synergetic proclivities of:

inward-outward and three-way aroundness;

precessional processing of plus-minus polarization; and

wave propagation mechanics;
together with the intertransformative behavioral phases of:

incandescent

liquid

plasmic

thermal

vapor;
and the mensurabilities elucidating the disciplines of:

biological

chemical

cryogenic

crystallographic

electrical

genetic

geodesic

geodetic

geological

geometrical

logical

mathematical

mechanical

nonbiological structuring

physiological

scientific

teleologic

thermodynamic

virological
explorations for comprehensive rational interrelationship number constants.