From: MoeBlee on
Lester Zick wrote:
> >Please quote what I said about 'cardinality' in general terms that is
> >not handled by my definition.
>
> Cardinality(x)=least ordinal(y) with equinumerosity(z).

I didn't post that or anything else nonsensical like that. Please don't
do that.

From: MoeBlee on
Lester Zick wrote:
> >Please quote what I said about 'cardinality' in general terms that is
> >not handled by my definition.
>
> Cardinality(x)=least ordinal(y) with equinumerosity(z).

I didn't post that or anything else nonsensical like that. Please don't
do that.

MoeBlee

From: MoeBlee on
Lester Zick wrote:
> >Please quote what I said about 'cardinality' in general terms that is
> >not handled by my definition.
>
> Cardinality(x)=least ordinal(y) with equinumerosity(z).

I didn't post that or anything else nonsensical like that. Please don't
do that.

MoeBlee

From: David Marcus on
MoeBlee wrote:
> wrote:
> > mueckenh(a)rz.fh-augsburg.de wrote:

> > > I guess I can see now the reason of your problems: You don't
> > > understand because you are looking for a tanslation always.
> > > There is no translation required. The tree is that mathematics
> > > which deserves this name. It is outside of your model,
> > > independent of ZFC, but generally valid and, therefore; covering
> > > ZFC too.
> >
> > Thank you for finally admitting that your argument can't be given
> > within ZFC.
>
> I don't recall the exact quote. If it is convenient for you, would
> you quote him saying that his argument is within Z set theory? As I
> recall, I sure thought that was what he said. It sure seemed clear
> enough to me that he was claiming to make an argument within Z set
> theory, which is the only reason I wasted my time trying to make
> sense of his argument. It would be nice to have his exact words and
> their context right in front of us.

Not sure if he ever said precisely "within Z set theory", but he
certainly said things very similar. Below are a few messages that I
found. There are probably others.

In the first, he says that "standard mathematics contains a
contradiction". In the next two, he states there are "internal
contradictions of set theory". In the next, I say that he says that
"standard mathematics contains a contradiction", and he does not
dispute this.

David Marcus
----------------------------------------------------------------------
From: mueck...(a)rz.fh-augsburg.de
Subject: Re: Cantor Confusion
Date: Mon, Oct 9 2006 8:54 am
Groups: sci.math

David Marcus schrieb:
> mueck...(a)rz.fh-augsburg.de wrote:
> > David Marcus schrieb:
> > > mueck...(a)rz.fh-augsburg.de wrote:
> > > > David Marcus schrieb:
> > > > > mueck...(a)rz.fh-augsburg.de wrote:

> > > > > > Hi, Dik,

> > > > > > I would like to publish our result to the mathematicians
> > > > > > of this group in order to show what they really are
> > > > > > believing if they believe in set theory.

> > > > > > There is an infinite sequence S of units, denoted by S =
> > > > > > III...

> > > > > > This sequence is covered up to any position n (included)
> > > > > > by the finite sequences I II III
> > > > > > ...

> > > > > What do you mean by "cover"?

> > > > A covers B if A has at least as many bars as B. A and B are
> > > > unary representations of numbers.

> > > > Example: A = III covers I and II and III but not IIII.

> > > > > > But it is impossible to cover every position of S.

> > > > > > So: S is covered up to every position, but it is not
> > > > > > possible to cover every position.

> > > So, your conclusion is that no finite sequence of I's will cover
> > > S. Correct?

> > > Is this your entire theorem or is there more to the conclusion?

> > My conclusion is: Either (S is covered up to every position <==> S
> > is completely covered by at least one element of the infinite set
> > of finite unary numbers <==> S is an unary natural) ==>
> > Contradiction, because S can be shown to be not a unary natural.

> Are you saying that standard mathematics contains a contradiction

Yes, obviously.

> or that you think mathematics should be done differently?

Not mathematics but set theory.

Regards, WM
----------------------------------------------------------------------
From: David Marcus
Subject: Re: Cantor Confusion
Date: Thurs, Oct 12 2006 3:01 am
Groups: sci.math

mueck...(a)rz.fh-augsburg.de wrote:
> William Hughes schrieb:
> > mueck...(a)rz.fh-augsburg.de wrote:
> > > William Hughes schrieb:

> > > > > > In my view we have not gotten very far. We still have the
> > > > > > result that there is no list of all real numbers

> > > > > That is not astonishing, because there are only those few
> > > > > real numbers which can be constructed.

> > > > Few? Few compared to what.

> > > Compared to the assumed set of uncountably many.

> > Funny, you claim that the term "uncountably many" has no
> > meaning, but you use it.

> You believe in its meaning and in the great set R.

> > > > The real numbers that cannot
> > > > be constructed? According to you they don't exist. But even
> > > > these "few" real numbers cannot be listed!

> > > Nevertheless the diagonal proof shows only that there are
> > > elements of a countable set which have not yet been constructed.\

> > No, it is much stronger. It shows that any list of constructable
> > numbers
> > is not complete.

> Because it had not been constructed. Nevertheless it shows that the
> constructed number belongs to a countable set. Therefore all can be put
> in bijection with N --- after the conxtruction is complete.

> > > > > > (we need to reinterpret our terms, real numbers are
> > > > > > computable real numbers, and a list is a computable
> > > > > > function from the natural numbers to the (computable) real
> > > > > > numbers).

> > > > > > If it gives you a warm fuzzy to say that
> > > > > > "Every ball will be removed at some time before noon",

> > > > > No. To say that every ball will be removed, is wrong, because there is
> > > > > not every ball.

> > > > If it gives you a warm fuzzy to say

> > > > "For any natural N, the ball numbered N will be removed from
> > > > the vase before noon"

> > > There is not "any natural" but only those which we can define.

> > O, so there are now

> not only now but always

> > only a finite number of naturals, not even an arbitrarially large
> > number. But you continue to prattle on about limits.

> > > There is a largest natural which ever will be defined. Hence
> > > mathematics in the universe and in eternity has to do with only
> > > a very small sequence of naturals.

> > > Writing 1,2,3,... is but cheating

> > If you want to deal with a system in which there is an unknown
> > but largest natural, knock yourself out.

> That is nonsense. There is no largest natural! There is a finite set of
> arbitrarily large naturals. The size of the numbers is unbounded.

> > But you have a long
> > way to go before you are even close to being consistent.

> It is just the reality. It is impossible to have more than 10^100
> numbers represented by all the bits of the universe.

> > And don't attempt to use results from this system to say that
> > results from another system are wrong.

> > Note that according to you the bal
From: MoeBlee on
Duplicate posts unintentional.

MoeBlee