The Bernoulli Confusion

Based on a long discussion concerning the Bernoulli numbers in the
newsgroup de.sci.mathematik in the year 2004:
An exposé of my contributions and the summary of the most important contributions of group. No longer up-to-date in every aspect, but authentic.
I put the central question of the discussion to Donald E. Knuth. My open letter and Knuth's reply.
My response to Knuth, which I never mailed. Here I try to ponder his arguments and set out the alternative. Read this paper if you want to understand the Bernoulli rebellion.
What is it all about? We look at the function
B(s) = -s zeta(1 - s),
where zeta denotes the Riemann zeta
function. Note that B(0) and B(1) are well defined by the limit. The Bernoulli numbers
then are defined as the values of this function at the
nonnegative integers, thus as B(n). Is this a sensible definition?
The Bernoulli Function

The Bernoulli function B(s) = -s zeta(1 - s).
The Bernoulli Riddle
Look at the following beginning of a sequence of rational numbers:
B0 = 1
B1 =
B2 = 1 - 1/2 - 1/3
B4 = 1 - 1/2 - 1/3 - 1/5
B6 = 1 - 1/2 - 1/3 - 1/7
B8 = 1 - 1/2 - 1/3 - 1/5
B10 = 1 - 1/2 - 1/3 - 1/11
The question is: What value receives B1? This question was answered in 1840 by two grand masters of the Bernoulli numbers, von Staudt and Clausen, independently. The right solution is not difficult to find, try it. And sure, the prime numbers govern the picture. You don't need to be a rocket scientist to see all this. In fact, you must be a rocket scientist to be able not to see it. Or at least a mathematician who only copies from other work, for example from the Handbook of the American National Institute of Standards. Astounding, even unbelievable is what an absurd answer you can find there. Believe it or not they say B1 = −1 + 1/2. No explanation given.
Hear us, O Mathematicians of the World!
B1 = 1 - 1/2
The Bernoulli numbers are the children of the zeta function ...
And G. H. Hardy adds: "The mathematician's patterns, like the painter's or the poet's must be beautiful; the ideas like the colours or the words, must fit together in a harmonious way."
Jakob Bernoulli says:


The Bernoulli Rebellion
-- 'Invito patre..'
But No, No, Ten Thousand Times No!
These are the words of D.E. Knuth in his famous paper Two Notes on Notation by which he objects to the opinion that 00 is to be left undefined. And these also shall be our words when we battle the absurd B1 = -1/2.
Junk the chapter on the Bernoulli numbers in the Handbook of Mathematical Functions.
And write an email to Karl Dilcher, the editor of the Bernoulli chapter in the
Digital Library of Mathematical Functions in the (probable) case that he will carry on this unhappy
tradition in this online library and object!
[dlmf_feedback@nist.gov].
Tell him what he is actually supposed to know: That the definition based on the zeta function will win
in the long run over the ad-hoc definition of the Handbook and all he can
achieve by not using
the natural definition is to prolong the pains of confusion.
Invite Karl Dilcher to the Wikipedia article on Bernoullli numbers where he can read, among other things, that:

No, the mathematical community should not allow the authorities and Institutes of Standards to get away with this balderdash to distort the sign of B1. And π (pi) does not equal 3.2, even if enforced by pi-bill ...
Let us not wait longer!
The Euler-Riemann reflection formula of the zeta function belongs to the crown jewels of mathematics. Let us no longer allow the barbarism to violate this equation by giving B1 the value -1/2. And also let us honor the great Jakob Bernoulli by simply no longer fasten on him numbers which he has never written. Is it not conceivable that he had recognized the connection with the zeta function, at least on some intuitive level, whereas some of his followers were not in the position to see this?
Join us! We believe in the unity of mathematics!
Sansei Takekazu-Kowa Seki, Jakob Bernoulli, von Staudt and Clausen, Worpitzky, Hasse, Neukirch, Woon, Conway and Guy, ...
[Last edited: 2008-03-06]
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