1.619047619 | rational ratio. | ||
n | Ph()^n | p^n-p^-n/p^n+p^-n | 1- ratio^2 |
1 | 1.619047619 | 0.4477144646 | 0.7995517582 |
2 | 2.6213151927 | 0.7459121502 | 0.4436150642 |
3 | 4.2440341216 | 0.8948023173 | 0.199328813 |
4 | 6.8712933397 | 0.958518851 | 0.0812416123 |
5 | 11.1249511214 | 0.9839698039 | 0.031803425 |
6 | 18.0118256252 | 0.993854207 | 0.0122538153 |
7 | 29.1620033931 | 0.9976509898 | 0.0046925025 |
sum of | 1.5677944879 | ||
Rational phi | sum of | 1.5724869905 | |
1 | 2 | ||
2 | 1.5 | error from pi/2 | 0.0030018388 |
3 | 1.6666666667 | error from pi/2 | -0.0016906637 |
5 | 1.6 | ||
8 | 1.625 | 0.0060036777 | |
13 | 1.6153846154 | ||
21 | 1.619047619 | ||
34 | 1.6176470588 | ||
55 | 1.6181818182 | ||
89 | 1.6179775281 | ||
144 | 1.6180555556 | ||
233 | 1.6180257511 | ||
377 | 0 |
Sunday, October 26, 2014
My numbers
These numbers are me using the rational ratio for Phi. If I use the limit of Lucas and actual Phi, I get -137.1590861574, which about right.
Using rational ratio, my entropy in pi is a lower than the actual fine structure,
.006 instead of .007. However, that is likely a selection error on my part. I have the titles and Fibonacci numbers both in the chart. I think there is a trade where adding more degrees of freedom and suffer a bit of error in Pi yield a better stability for the atom.
The odd orbital shapes happen because the entire power series is not used everywhere.
The Lucas number do not actually divide out a rational ratio, they count up to the maximum degree, (L number) then count down, in a quantum oscillation. Everything is done by n, the Lucas quant, no time or space. It looks like everything in the nucleus and orbitals is composed of just 16-20 integer counts. Separability by primes insure that they combine in the proper two or three integers near the surface of a sphere.
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