Underweysung der Messung mit dem Zirckel vnd Richtscheyt (Four Books on Measurement). Albrecht Dürer, 1538
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Underweysung der Messung mit dem Zirckel vnd Richtscheyt (Four Books on Measurement). Albrecht Dürer, 1538

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Ein schöner kurtzer Extract der Geometriae vnnd PerspectiuaePaul Pfinzing, 1599
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Ein schöner kurtzer Extract der Geometriae vnnd Perspectiuae
Paul
Pfinzing, 1599

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Anleitung zur Feldmesskunst im Nürnberger Gebiet(Instructions for surveying, in the Nuremberg area)Jörg Unger
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Anleitung zur Feldmesskunst im Nürnberger Gebiet
(
Instructions for surveying, in the Nuremberg area)
Jörg Unger

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Geometria theoretica et practicaJohann Baptist Roppelt, 1772
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— Thank you for sharing, nends.

Geometria theoretica et practica
Johann Baptist Roppelt, 1772

via: bvbm1 | permalink: nbn:de:bvb:22

— Thank you for sharing, nends.

John Arden Hiigli. Chrome 194, 2011  Transparent Oil on Linen Canvas










Through  a process known as subdivision a tetrahedron can be broken down to  infinity.  Subdivision produces the cyclical growth of other structures,  such as the cube octahedron (CUO).  The lowest frequency tetrahedron  capable of “growing” a cube octahedron is the four-frequency  tetrahedron.  The eight-frequency tetrahedron produces a two-frequency  cube octahedron as well.  The sixteen-frequency tetrahedron produces a  nuclear CUO, a nuclear two-frequency CUO and a nuclear four-frequency  CUO. Thus we can say that the sub-division of polyhedra manifests a  natural space characterized by transformation and change of scale.    Scale change involves systems in which the size of individual forms  vary incessantly while the proportions and characteristic shapes of  these forms remain constant.  These forms and their proportions can be  grouped in a regular sequence in which the elements of the sequence  constitute an infinite series. Such “scale-invariant” sequences occur in  nature (the leaf’s nervure, the laceration of the fern, the widening or  narrowing line of the snail shell, the shoreline of the continents,  etc).  This “invariability” is also a characteristic of fractal  geometry. In the Isotropic Vector Matrix the potential for scale change  is related to infinite transformation.  With every doubling (or halving)  of edge-length the volume increases (or decreases) by eight (8),  equivalent to the octave in music. The artistic strategy of using  transparent oil paint makes it possible to explore and communicate this  world of higher dimensions.  Scale shifting, or scale change, as well as the repetitious logic  enabling it, is known in mathematics as “iteration,” hence the term  “iterative mathematics/geometry”. It is a particular feature of IVM that  is a useful tool in both mathematics and art education.  In particular  scale change provides a tool of measurement with which to evaluate angle  & distance information.

via: bridges math art

John Arden Hiigli. Chrome 194, 2011
Transparent Oil on Linen Canvas

Through a process known as subdivision a tetrahedron can be broken down to infinity. Subdivision produces the cyclical growth of other structures, such as the cube octahedron (CUO). The lowest frequency tetrahedron capable of “growing” a cube octahedron is the four-frequency tetrahedron. The eight-frequency tetrahedron produces a two-frequency cube octahedron as well. The sixteen-frequency tetrahedron produces a nuclear CUO, a nuclear two-frequency CUO and a nuclear four-frequency CUO. Thus we can say that the sub-division of polyhedra manifests a natural space characterized by transformation and change of scale. Scale change involves systems in which the size of individual forms vary incessantly while the proportions and characteristic shapes of these forms remain constant. These forms and their proportions can be grouped in a regular sequence in which the elements of the sequence constitute an infinite series. Such “scale-invariant” sequences occur in nature (the leaf’s nervure, the laceration of the fern, the widening or narrowing line of the snail shell, the shoreline of the continents, etc). This “invariability” is also a characteristic of fractal geometry. In the Isotropic Vector Matrix the potential for scale change is related to infinite transformation. With every doubling (or halving) of edge-length the volume increases (or decreases) by eight (8), equivalent to the octave in music. The artistic strategy of using transparent oil paint makes it possible to explore and communicate this world of higher dimensions. Scale shifting, or scale change, as well as the repetitious logic enabling it, is known in mathematics as “iteration,” hence the term “iterative mathematics/geometry”. It is a particular feature of IVM that is a useful tool in both mathematics and art education. In particular scale change provides a tool of measurement with which to evaluate angle & distance information.
Closest Packing of Spheres by Buckminster Fuller, 1980 
BuckminsterFuller’s geometry shows that any sphere tangentialIy and  symmetrically surrounded by spheres of the same radius will always  produce an array of twelve balls around one ball. This phenomenon  defines what he calls the Vector Equilibrium. The transparent spheres of  this sculpture give it an ethereal quality reminiscent of a child’s  bubble blowing while lucidly presenting the concept. Faintly visible  equators illustrate the tangency of adjacent balls and the red nuclear  sphere clarifies the radial symmetry of the structure. Twenty-four rods  delineate the edges of the polyhedron uniquely determined by the nuclear  packing of spheres. Its shape is unaffected by additional layers of  balls. Two layers surround the nucleus which classifies this structure  as “two-frequency,” a term that refers to the subdivisions along each  edge.

via: artnet

Closest Packing of Spheres by Buckminster Fuller, 1980 

BuckminsterFuller’s geometry shows that any sphere tangentialIy and symmetrically surrounded by spheres of the same radius will always produce an array of twelve balls around one ball. This phenomenon defines what he calls the Vector Equilibrium. The transparent spheres of this sculpture give it an ethereal quality reminiscent of a child’s bubble blowing while lucidly presenting the concept. Faintly visible equators illustrate the tangency of adjacent balls and the red nuclear sphere clarifies the radial symmetry of the structure. Twenty-four rods delineate the edges of the polyhedron uniquely determined by the nuclear packing of spheres. Its shape is unaffected by additional layers of balls. Two layers surround the nucleus which classifies this structure as “two-frequency,” a term that refers to the subdivisions along each edge.

via: artnet

 Ioannis Keppleri Harmonices mvndi  libri Kepler, Johannes, 1571-1630.”

In this book Kepler announced the discovery of his third law of planetary motion: the square of the period of time of a planet is proportional to the cube of its mean distance from the sun.  Kepler connected planetary motion with musical harmonies, with geometrical figures, with the relations of numbers.  Newton’s discoveries were based on Kepler’s three laws.
via: posner.library

(kl0vis)

Ioannis Keppleri Harmonices mvndi libri Kepler, Johannes, 1571-1630.”

In this book Kepler announced the discovery of his third law of planetary motion: the square of the period of time of a planet is proportional to the cube of its mean distance from the sun. Kepler connected planetary motion with musical harmonies, with geometrical figures, with the relations of numbers. Newton’s discoveries were based on Kepler’s three laws.

via: posner.library

(kl0vis)

(via kl0vis-deactivated20111012)

Les Anaglyphes Geometriques by Henry Vuibert
found: here

Les Anaglyphes Geometriques by Henry Vuibert

found: here

margartia:

Philip Glass - Sesame Street - Geometry of Circles

NORTON       JUSTER, The Dot and the Line, a romance in Lower Mathematics,       1963
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NORTON JUSTER, The Dot and the Line, a romance in Lower Mathematics, 1963

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NORTON       JUSTER, The Dot and the Line, a romance in Lower Mathematics,       1963
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NORTON JUSTER, The Dot and the Line, a romance in Lower Mathematics, 1963

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Tagged with:

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NORTON       JUSTER, The Dot and the Line, a romance in Lower Mathematics,       1963
via fulltable.com

NORTON JUSTER, The Dot and the Line, a romance in Lower Mathematics, 1963

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CLICK IT. DO IIIT.

Dymaxion House, project, Plan by R. Buckminster Fuller

via moma.org

Dymaxion House, project, Plan by R. Buckminster Fuller

via moma.org