| Modeling the hypercube. | ||
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| Mathematical models for the hypercube are quite common. here are just a few | ||
| Modular Hyperspace |
In modular hyperspace an object is just repeated in every direction In this manner broken r-agonals are unbroken because of repetition most commonly used for panmagic hypercubes, as such the pan-relocation becomes a mere translation in hyperspace |
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| the donut model. | The donut model is quite commonly used for depicting panmagic squares. | |
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Most common model for an order m square is to have m minor circles 2π/m apart centered around a major circle. On the minor circles 2π/m apart the circles are joined by circles parallel to the majaor circles, thus forming the 2-Points of the square, when the donut is broken open. A more elaborate modal is the three dimensional hypertorus |
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| the hypertorus model. |
The hypertorus model is quite commonly used for depicting panmagic squares. the hypertorus can be seen as a generalisation of the donut model. |
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The hypertorus can be viewed upon as a series of circles running on top of one another, in order to depict an order m hypercube each circle progresses 2π/m on top of the circle it is running on when the circle completes 2π Thus continuing the hypertorus forms a single circle-line figure, upon which a permutation of the intended numbers can be superimposed to complete the model of the hypercube. The combined hypertorus model and mentioned number permutation thus form a modal for the hypercube one dimension lower then the dimension of the hypertorus itself. |
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| Template |
A template for an order m hypercube is formed by a sequence of mn hypercube positions or numbers [1..mn] on positions within the hypercube it self. |
Modeling the hyperstar. |
| Template |
Template are used by this author to depict the positions of numbers in a panmagic hypercube within a hyperstar, these hyprstars thus form pan-isomophic hyperstars Also of course templates can be formed by depicting permutation positions within a hyperstar |
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