andydude Wrote:This must mean that:
\( \text{ilog}(f^{\circ t}) = t \text{ilog}(f) \)
so
\( f^{\circ t} = \text{ilog}^{-1}(t \text{ilog}(f)) \)
Andrew Robbins
Would that be true also for imaginary t? t=I, like:
\( \text{ilog}(f^{\circ I}) = I \text{ilog}(f) \)
\( f^{\circ I} = \text{ilog}^{-1}(I \text{ilog}(f)) \)
The functions having ilog property ilog(fg)=ilog (f) + ilog(g) seem to be rather wide class, am I right?
Would it be true for ( I am only writing down iterates of f):
any 1/m, 1/n - are there any constraints on m, n like they must have common integer which they both divide?
any 1/x, 1/y or just 1/x, 1-1/x = (x-1)/(x), or n/x , 1-n/x = (x-n)/x?
purely complex conjugate iterates, like it, -it ?
z and z*?
Please tell me where I am first wrong in my conjecturing.
Best regards,
Ivars

