Re: Calculus XOR Probability
- From: Tony Orlow <aeo6@xxxxxxxxxxx>
- Date: Wed, 17 May 2006 13:46:43 -0400
Matt Gutting said:
Tony Orlow wrote:
MoeBlee said:
Tony Orlow wrote:
MoeBlee said:You said "To say all elements are finite but the set is infinite
Tony Orlow wrote:I was speaking of the logic behind the limit ordinals, and how it is flawed.
To sayIn what theory? In set theory? No, what you said is not true of set
all elements are finite but the set is infinite implies that there is some
lartgest finite with an infinite successor.
theory. So in some other theory? If in some other theory, then what are
its axioms and primitives and what are its definitions of 'infinite',
'largest', 'finite', and 'successor'?
implies that there is some lartgest finite with an infinite successor."
That statement contradicts set theory. So my question, which you did
not answer, is: In what theory do you cliam that your statement holds?
And there is no flaw iin the logic behind limit ordinals. The only
logic involved in set theory is first order predicate logic.
I suppose what it boils down to here is infinite induction. Since the size of
the set is the successor to the maximal element in all finite sets, this
relationship should hold, being an equality, in the infinite case. If that is
so, then omega is successor to the largest finite, and the notion is self-
contradictory. Infinite induction appears to be discredited, but the only
counterexample in this thread is easily explained otherwise, and "infinity did
it" doesn't fly when it comes to explaining an error of sqrt(2). The limit
ordinal omega is in direct contradiction with infinite induction, so one of
them is wrong. Hint: it's not infinite induction.
The problem I see with this is that the finite cases, as you yourself
point out, deal with sets having maximal elements. Since this is not true
for "the infinite case", I don't see how you can apply the same reasoning
there.
Matt
*** Posted via a free Usenet account from http://www.teranews.com ***
What does that have to do with anything? This is an inductive proof that for
every finite natural, the number of naturals up to that point is finite. Does
that not mean that there is no point at which the set of finite naturals is
infinite? If it does not become infinite within the range of elements that it
includes, how is it infinite? By including things outside the set?
--
Smiles,
Tony
.
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