| Paths through the Hypercube | ||
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John R. Hendricks's "pathfinders" where defined to run through hyper-r-agonals, below defines a notation for these and other definable paths through a n-dimensional hypercube, an n-Point can be used to fix the starting point of a given path of any type, so this article is only concidering the path-form. |
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| 1-agonal | m {<0r1s>} (r = 0.. m-1; r != s) | |
| main n-agonal | m {<1r>} (r = 0.. m-1) | |
| sub n-agnal | m {<1r-1s>} (r = 0.. m-1; s = 0.. m-1; r != s) | |
| bent hyper-n-agonal |
m/2 {<vi; i = 0..n-1>,<wi; i = 0..n-1>} ; with: <v> * <w> = <0> both n-Vectors elements -1 and 1 only; henche these vectors are orthogonal |
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| knight jump paths | m {<vr>} (r = 0.. m-1; vr != 0) | |
| bent knight jump paths |
m/2 {<vi; i = 0..n-1>,<wi; i = 0..n-1>} both n-Vectors no 0 elements (vectors need not be orthogonal) |
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| other paths |
{<vr>i} (r = 0.. m-1;) (path supposed to be non-circular in less than m steps) |
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The number of vectors between the curly brackets is not yet defined (probably m), as suggested above repeated vectors can be indicated by preapending the number of repetitions, this number is multiplied by the "length-indicator" preappended before the curly brackets. (the mentioned non-circular condition just avoids double counting the same cell element in the same path). |
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