02/08/2023, 12:55 PM
(02/08/2023, 12:46 PM)tommy1729 Wrote:(02/08/2023, 06:35 AM)JmsNxn Wrote:(02/08/2023, 06:19 AM)Caleb Wrote: Also, I think the Master Theorem idea relates to some question I asked on MO a couple months ago-- you might find some of the answers others provided interesting: https://mathoverflow.net/questions/43549...nd-sum-n-1
Yes, just reading this question I agree with Tom Copeland. He has answered questions of mine before on MO (I've had like 5 throwaways on MO for asking questions like yours). I've interacted with him a good amount of times related to Integral Representations, and he's a good person to talk to about anything to do with integral representations. Ramanujan's work is actually a Fourier Transform result--which is at the root of all integral representations. Listen to Tom Copeland...
Im more into Laplace transforms.
I mentioned a few integral transforms at the fake function thread :
https://math.eretrandre.org/tetrationfor...63&page=21
and other pages there.
Ofcourse we all did, but I wanted to point that out.
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I think in general for meromorphic (on C ) functions Ramanujan Master theorem gives you the right values.
regards
tommy1729
Analytic continuation and symmetry are essential see this related issue :
https://math.stackexchange.com/questions...0-ns-n-s-1
And likewise for its sum function.
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I would like to point out that all this probably relates to continuum sums and continuum products.
the continuum product is problematic around zero's of a function for a logical reason.
By taking log, this implies continu sums are problematic around log sing.
So I assume if a counterexample exists to Caleb question it relates to log singularities.
Natural boundaries are possible issues too because it means it is not defined to sum everywhere ( as the function is not everywhere analytic defined , even when defined there )
I think essential singularities are issues too.
Basically I am saying that only the non-analytic points matter, which makes sense since the techniques work for polynomials aka truncated taylor series.
Going around poles is easy in the riemann surface/analytic continuation sense, afterall there is only one path ( not multivalued ), hence this also shows why it works.
regards
tommy1729


). I've interacted with him a good amount of times related to Integral Representations, and he's a good person to talk to about anything to do with integral representations. Ramanujan's work is actually a Fourier Transform result--which is at the root of all integral representations. Listen to Tom Copeland...