@optumissed
You keep skipping the question: what is your argument against Cantor?
@tygxc you keep skiping this question: Because a supercomputer calculating x number of moves fail to find a win, how does that assue that a maskine calculating x +1 moves would fail to find a win?
tygxc's living in a fantasy and this possibility cannot exist to him. this has been pointed out to him for YEARS and he continues to ignore it.
Regarding two infinite lists, one being larger, that is impossible for the reason that infinity is not finite.
This makes no sense. Let me explain how what you claim to be impossible is done. You define a partial order of size (cardinality) on sets as follows. If A and B are sets:
A <= B if there is a 1-1 mapping from A to B (i.e. A is in bijection with a subset of B).
This relation is easily proven to be transitive and reflexive, so it provides us with a partial order of magnitudes (sizes) of sets.
With more rigorous work we can generate the hierarchy of cardinalities, starting with the familar order of the sizes of finite sets, then moving to the size of the natural numbers - the first infinite (cardinal) number, and to larger infinity numbers.
You may believe that infinite numbers can't be different sizes, but the definitions and simply deduction prove otherwise. See any first year maths course for the details. (Or I can provide them).
If it is not finite, then it cannot be quantified
See above for how to do this.
and therefore one list cannot be shown to be larger.
And this.
Again, it might be ambiguous.
It's 100% unambiguous.
It can conceivably be both larger and not larger,
You might guess so. You would be wrong. The theorems based on the definitions prove otherwise.
depending on perspective, just as 0/0 is both 0 and 1
No. 0/0 is undefined.
If you can understand that, I'll talk to you some more. If you can't understand it, it would be hard work.
I understand it. You need a basic course on the subject.