03/26/2008, 08:54 PM
Ivars Wrote:Not afraid, but difficult for me to work with before I learn enough software how to handle complex number iterationsYa right, probably excel can not compute with complex numbers ...
Quote:So You mean Your formula works at least in the range \( e^{-e}; e^{1/e} \) also below 1? That is wonderful achievement
Yes, exactly, isnt it?! Bases below 1 were what *I* was afraid of!
Quote:For base \( {1/e} \), \( {1/e}[4]-{1/\Omega} =1 \) - you can add this to your graph as well perhaps another spiral will emerge which should pass via this point?
You mean \( \frac{1}{e}[4](-\frac{1}{\Omega})=1 \)? Thats not true. \( b[4]t \) is only real for integer \( t \) (considering \( e^{-e}<b<1 \)).
Quote:Your nice spiral graph (see-spirals are involved) anyway converges to my beloved \( \Omega \), as it should as \( {1/e}[4]\infty=\Omega=0.567143.. \).
Exactly: \( a^{1/a}[4]\infty=a \).
Quote:But what about base \( e^{1/e} \) which is limit case?
There are also iteration formulas, I think you can find them in Ecalle's work. However if I remember right, its not one formula, but some intermediate steps required. Meanwhile however you can just consider it as a limit of the other case.

) anyway converges to my beloved \( \Omega \), as it should as \( {1/e}[4]\infty=\Omega=0.567143.. \).