Here's what I mean by this: sure, lot's of interesting mathematics can exist in each of various choices of incompatible axiom systems. Of course I wouldn't presume to pass judgement on one system being right or wrong, But at least initially, well, axioms may be introduced for ostensive purposes, but which ultimately fail to fulfil their promise.
The debate surrounding axiomatic set theory is actually pretty germane here: I seriously doubt that Cantor (well, actually, Hilbert) would have thought that his Continuum Hypothesis would be proven to be
independent of axiomatic set theory, as it was by Paul Cohen. So in the end, an enormous amount of consternation surrounding questions of axiomatic set theory turned out to be completely meaningless. In the end, though, the
technique invented to
show this ("
forcing") turned out to be far more interesting and powerful, leading to a whole host of new and unexpected research projects.
So sure, there might be lots of interesting mathematics that comes out of badly formulated, or, shall we say, "not even wrong"
[quote=Doron Zeilberger]
Likewise, Cohen's celebrated meta-theorem that the continuum hypothesis is "independent" of ZFC is a great proof that none of Cantor's ×-s make any (ontological) sense.
[/quote]
questions, which mathematicians and logicians
attempt to formulate axiomatically, and then get their asses kicked. But again, I am not passing judgement on this or that choice of axiom from a modern, retrospective view of mathematics. It would be stupid for me or anybody else to argue otherwise.
But in the historical sense, without the benefit of hindsight about which axioms really lead to interesting mathematics? Axioms can totally be "wrong" (read Jon`C's original post if you are confused about the sense in which he and I understand the word "wrong" here). There have been a bunch of projects in topology and geometry from the early 20th century, during a period of time where mathematicians were utterly
obsessed with axioms, but in the end were shown to be a
complete waste of time, because they unexpectedly and unfortunately turned out to be trivially equivalent to existing axioms.
Finally, let me leave you with the provocative opinion of the great electrician, Oliver Heaviside, whose operator calculus was only later rescued, by combinatorialists, long after it had been cast aside by snobbier mathematicians as "not rigorous" enough.
[quote=Oliver Heaviside]
In the preceding, I have purposely avoided giving any definition of 'equivalence.' Believing in example rather than precept, I have preferred to let the formulae, and the method of obtaining them, speak for themselves. Besides that, I could not give a satisfactory definition which I could feel sure would not require subsequent revision. Mathematics is an experimental science, and definitions do not come first, but later on. They make themselves, when the nature of the subject has developed itself. It would be absurd to lay down the law beforehand.
[/quote]