From: mueckenh on

Virgil schrieb:

> > > (It is contained in the union of all lines, but the
> > > union of all lines is not a line)
> >
> > That is a void assertion unless you can prove it by showing that
> > element by which the union differes from all the lines.
>
> Not quite. In order to achieve that the diagoal is not in any linem all
> that is required is:
> Given any line there is an element of the diagonal not in THAT line.
> It is not requires that:
> There is an element of the diagonal that is not in any line.


For linear sets you cannot help yourself by stating that the diagonal
differs form line A by element b and from line B by element a, but a is
in A and b is in B. This outcome is wrong.

Therefore your reasoning "there is an element of the diagonal not in
THAT line. It is not required that: There is an element of the diagonal
that is not in any line." is inapplicable for linear sets. You see it
best if you try to give an example using a finite element a or b.

You will say there is no finite example a or b. That is correct. And
from the obseration that there are no other than finite elements you
could then conclude that your reasoning is wrong, if ...

>
> For S = the set of all naturals, or for S = the set of all reals, or for
> S = the set of all rationals between 0 and 1, and for lots of other
> ordered sets, it is true that
> (Ax in S) (Ey in S) (y > x)
> but it is false that
> (Ey in S) (Ax in S) (y > x)

That looks innocent and can be satsfied by a potentially infinity set
(except that "A" (forall) is not applicable there but only "Awhich
exist" or so.)

But it is false that such a set can by an actually infinite set of
finite elements only. To see that compare the IET and your statement
that a diagonal can be longer than every line.

Regards, WM

From: mueckenh on

Virgil schrieb:

> In article <1165923504.410525.226600(a)79g2000cws.googlegroups.com>,
> mueckenh(a)rz.fh-augsburg.de wrote:
>
> > Dik T. Winter schrieb:
> >
> > > > > > Please give me all the bits of 1/3. Then I will show the bijection.
> > > > >
> > > > > I can't so you can not show a bijection.
> > > >
> > > > Representations (= paths) which do not exist cannot be part of a
> > > > bijection.
> > >
> > > So you can not show a bijection (in your opinion), but nevertheless you
> > > state that you have given a surjection. Do you not think you are
> > > contradicting yourself a bit?
> >
> > I give a surjection on all existing paths.
>
>
>
> But what has been surjected by WM were not the individual nodes or
> branches, as required, but /infinite sequences/ of nodes or /infinite
> sequences/ of branches. Which is not at all the same thing.

OK. If you agree that this is a surjection, then you must only
recognize that the series 1 + 1/2 + 1/4 + ...
consists of countably many terms. And the set of all countably many
series I used consists of countably many terms. Therefore I gave a
surjection from a countable set onto the set of paths.

Further, the tree is continuous in that at every level n there arrive
2^n edges, that means there arrive 2^n separated paths. If in the whole
tree 2^aleph0 paths have been separated, then there must be a level up
to which (or within which) less than 2^aleph0 paths have been
separated but more than any finite number of paths.

Regards, WM

From: mueckenh on

Virgil schrieb:

> In article <457ece72(a)news2.lightlink.com>,
> Tony Orlow <tony(a)lightlink.com> wrote:
>
> > Dik T. Winter wrote:
> > > In article <457d8cc0$1(a)news2.lightlink.com> Tony Orlow <tony(a)lightlink.com>
> > > writes:
> > > > Dik T. Winter wrote:
> > > > > In article <1165761763.908889.34550(a)80g2000cwy.googlegroups.com>
> > > > > Han.deBruijn(a)DTO.TUDelft.NL writes:
> > > > > ...
> > > > > > Let P(a) be the probability that an arbitrary natural is divisible
> > > > > > by
> > > > > > a fixed natural a. Then P(a) = 1/a . Forbidden by set theory.
> > > > >
> > > > > No. Not specifically forbidden by set theory. Forbidden because there
> > > > > are
> > > > > no appropriate definitions for the words you are using (they are not
> > > > > used
> > > > > conforming to standard definitions, so you better supply definitions).
> > > > > In probability theory (as is commonly use) you have to define how you
> > > > > *select* your arbitrary natural. You have not done so, so probability
> > > > > theory does not have an answer.
> > > >
> > > > Why does that matter?
> > >
> > > It does matter because if you do not properly define your problem,
> > > mathematics is not able to give an answer.
> >
> > It's sufficiently defined if one assumes that there is a uniform
> > probability distribution.
>
> From which assumption, added to the others, one can deduce that 0 = 1,
> and all sorts of peculiar things.
> >
> > >
> > > > This is the same thing as your stupid ball and
> > > > vase trick. Why do you need to label anything, or know what you're
> > > > choosing from the infinite set?
> > >
> > > Because that is part of the problem setting. Giving that setten will
> > > allow mathematics to model the question and give an answer.
> > >
> >
> > That problem has a clear answer with or without the labels: the sum
> > diverges as f(n)=9n. The labels are confounding, not clarifying.
>
>
> What is confounding to TO is clairifying to anyone with the wits to
> understand it. The result depends on the labeling. Eliminating the
> labeling makes the result impossible to determine.
> >
For any clear mind the result is completely independent of labelling.

Regards, WM

From: mueckenh on

Virgil schrieb:

> In article <457ecfca(a)news2.lightlink.com>,
> Tony Orlow <tony(a)lightlink.com> wrote:
>
>
> > If the number of levels in the tree is countable,
> > then every path in the tree is finite, and marked by a specific edge
> > where the value arises. Is that not true?
>
> If TO means by "level" of a node in a binary tree the number of branches
> between it and the root node, then to have every path finite requires
> that every path end in a leaf node ( a ode with no child nodes ).
>
> That requires the number of "levels" be finite, not merely countable.
>
> > In order to allow infinitely
> > long strings, you must have an uncountable number of levels in the tree,
> > in which case 1/3 will exist with a specific edge, infinitely far from
> > the root node.
>
> There are no such things as trees with uncountably many "levels", at
> least according to any standard definition of trees.

And there are no such things as trees with uncountably many paths.
>
> there is a unique root node at level 0, and each level thereafter is the
> successor to a previous level through a connected chain of levels down
> to the root.

Therefore we have a continuous growth of patghs separations from 1 to
2^aleph0. Therefore the function 2^n must be continuous

Regards, WM

From: mueckenh on

Virgil schrieb:

> In article <1166007320.816114.309670(a)79g2000cws.googlegroups.com>,
> mueckenh(a)rz.fh-augsburg.de wrote:
>
> > Franziska Neugebauer schrieb:
> >
> > > mueckenh(a)rz.fh-augsburg.de wrote:
> > >
> > > > Franziska Neugebauer schrieb:
> > > [...]
> > > >> 1. You do not present a convincing definition of "number". (Most
> > > >> likely you have none).
> > > >
> > > > Definitions are abbreviations like the following:
> > >
> > > [too long, too old,
> >
> > Impossible. Its from my new book to appear within few days. Can future
> > be too old?
>
> A new book with nothing in it but old ideas is not part of the future
> but merely an echo of the past.

This book combines old knowledge and new insigts in a brilliant way.
> >
> > > too German;
> >
> > it is impossible to be too German.
>
> Only in the minds of Germans.
> >
> > > no definition at all]
> >
> > It is clear that you have not understood.
>
> On the contrary, it is likely that he understood too well.

Well, meanwhile even you should have understood that he is a she.

Regards, WM