e=1 | e=2 | e=3 | e=4 | (e=5) | |
---|---|---|---|---|---|
Number of α for which we consider the norm Ne(α) | 7 | 47 | 1279 | 589823 | 73014444031 |
same as above, reduced by Remark 1 of Appendix*1 | 4[computation*2] | 27[computation*2] | 703[computation*2] | 311295[computation*2] | 37580963839 |
same as above, reduced by all Appendix*1 | 4 | 23 | 591[computation*2] | 278783 | 35433545727 |
Number of different Ne(α) values obtained by computation | 4 | 17 | 267 | 202549 | |
me = max Ne(α) | 5 | 81 | 97393 | 542909003297 | |
Number of prime number p which divides some norm Ne(α) | 2 | 6 | 118 | 104443 | |
same as above, with an odd prime number L such that p=2e+1L+1 | 0 | 1 | 9 | 4825 | |
|Pe| i.e. same as above, with 2 as a primitive root modulo L |
0 | 1 | 2 | 2193 | |
Pe | ∅ | {41} | {593, 977} | {97, 353, 929,…,194600255393, 205620281249} |
* For the definition of Pe, α and Ne(), see [Fujima-Ichimura, Section 3].
*1 For these reductions, see
[Appendix],
[Note]
and
[Calculation]
(PDFs).
*2 Format of the computation outputs is explained [here(pdf)].
(15) in the paper : fe(a0,…,a2e-1) = Xe2+Ye2
e | 1 | 2 | 3 | 4 |
---|---|---|---|---|
Xe | a0 | a02-a22+2a1a3 | homogeneous polynomials of degree 4 with 43 terms | homogeneous polynomials of degree 8 with 30667 terms |
Ye | a1 | a12-a32-2a0a2 | ||
Derivation | see Section 2 in the document*3 | see Section 3 in the document*3 | see Section 4 in the document*3 |
*3 [Mathematica document (PDF)]