The 4-D Case
We obtain the 4-D convergent ratio vector by successive transformations of a base vector by the 4-D triangular matrix:
This leads to the sequence
4-D Sequence
1 | |
4 | |
10 | |
30 | |
85 | |
246 | |
707 | |
2037 | |
5864 | |
| |
s1 |
2 | |
7 | |
19 | |
56 | |
160 | |
462 | |
1329 | |
3828 | |
11021 | |
… | |
s2 |
3 | |
9 | |
26 | |
75 | |
216 | |
622 | |
1791 | |
5157 | |
14849 | |
| |
s3 |
4 | |
10 | |
30 | |
85 | |
246 | |
707 | |
2037 | |
5864 | |
16886 | |
| |
s4 |
A comparison of Figure 5 and Figure 9 reveals that while the regular heptagon allows us to form 2 stars, the regular nonagon only forms one star, vertices 3 apart forming only a triangle — well 3∣9 . In fact a regular polygon with 2n + 1 sides will form n-1 stars if n is prime. Only when n is prime do we find a matrix field of interest. In the 4-D case some candidate core matrices have no inverses.
Thus we will not consider the 4-D, 7-D or 10-D cases any further.
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