“The Riemann Hypothesis” by Michael Atiyah – Preprint
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I know Atiyah is supposed to present on the Riemann Hypothesis at the Heidelberg Laureate Forum on Monday. If the organizers saw this preprint and decided to green-light his lecture, I would consider that disrespectful (to Atiyah & the attendees) and borderline malicious, especially given the context of his other recent mathematical claims, along with his truly bizarre Abel lecture [2].
As Atiyah says in the preprint. The magic is the Todd function and the Mathematical framework that comes with it. It seems Atiyah has developed a new framework (which he calls Arithmetic Physics) and a side product of the framework you get a simple proof of RH. I don't know if the proof is correct. But I don't see any signs of crackpottery in the preprint.
Finally, this is in the style of Atiyah. He is known to be a "theory builder" rather than a "problem solver". True to that, he's claiming a whole new way of looking at number theory. So even if the proof turns out to be false. Mathematicians still get some new ideas.
[1] https://drive.google.com/open?id=1WPsVhtBQmdgQl25_evlGQ1mmTQ...
His definition of the critical strip (2.4) is wrong.
He works with some family of polynomial functions who agree on the sets K[a] that have open interior (2.1). Of course, two polynomials that agree on infinitely many points are identical. So there really is not much to his "Todd-function". It is just a polynomial.
From his claims 2.3 and 2.4 then follows T(n)=n, for all natural n and hence T(s)=s, as T is a polynomial.
What does "T is compatible with any analytic formula" in (2.4) even mean? Does it mean "for f(X) a everywhere converging power series, then T(f(s))=f(T(s)), for s in C"? This can only hold for T(s)=s, again. So maybe it means something else? He applies it to f(X)=Im(X-1/2), which is not a power series, so what does he mean?
The Hirzebruch reference is a 250pp book. The paragraph on Todd-Polynomials (which are a family of multivariate polynomials, btw. There is no "Todd-polynomial" T in Hirzebruch!) does not contain a formula as claimed in (2.6).
Considering the last two breakthrough claims, that Atiyah made (no complex S^6 sphere and a new proof of Feit-Thompson) vanished in thin air, I remain more than sceptical that this "preprint" can be salvaged.
Consider f(x, y) := xy and g(x, y) := xy^2
Fixing x=0 note that f and g agree along {(x, y) | x = 0, y in R}. But f is not identical to g. There is no open subset of R^2 such that f and g agree throughout the subset.
Would rewording "two polynomials that agree on infinitely many points are identical" as "two polynomials that agree on any open set" fix this? Or restrict the statement to polynomials in one variable only?
Edit: it seems the internet is saying, yes he is a fields medalist, but hold with the champagne for a minute until this is peer reviewed at least
https://mathoverflow.net/questions/311062/sir-michael-atiyah...
His past achievements are rightly celebrated. Most mathematicians recognize the situation and are respectfully trying to minimize the fuss.
Edit: And his write-up: https://drive.google.com/file/d/17NBICP6OcUSucrXKNWvzLmrQpfU...
I studied the RH for my Senior Thesis and Godel completeness makes tons of sense here.
In terms of the proof, Proof by contraction has always felt like it yields short proofs. The beauty is the in the assumption and the tools afterwards.
In fact, the more I read the proof, the more beautiful I find the construction to be. Everything falls out. Thats why its so short.
This Todd Function I've never heard of so I need to do some reading.
Seems pretty legit to me but, you need alot of understanding here.
Source: I have a masters in Math and have studied the RH in depth during those studies.
Otherwise, the “proof” here doesn’t really contain a lot. A couple undergrad analysis classes are enough to “understand” (and consequently call out nonsense of) this bit of writing.
I think it should be given full review and document crtiscisms of it.
https://drive.google.com/file/d/1WNbTDKljpUR-4im-IxqluY1tKer...
Counting numbers are the building blocks of addition and primes the building blocks of multiplication. The RH is important because most theorems in number theory pertain either to additive concepts or multiplicative concepts, but rarely both. In some sense there is a fundamental link between addition and multiplication that we still don't understand. One can see the collatz conjecture as a byproduct of this fact. A proof of RH would give insight to what this link is and give us a deeper understanding of why prime numbers seem so regular yet random.
https://drive.google.com/file/d/17NBICP6OcUSucrXKNWvzLmrQpfU...