From: mueckenh on
On 12 Apr., 19:53, Virgil <vir...(a)comcast.net> wrote:
> In article <1176397196.082457.230...(a)y5g2000hsa.googlegroups.com>,
>
>
>
>
>
> mueck...(a)rz.fh-augsburg.de wrote:
> > On 11 Apr., 19:42, Virgil <vir...(a)comcast.net> wrote:
> > > In article <1176298903.609533.227...(a)d57g2000hsg.googlegroups.com>,
>
> > > > > > Are the
> > > > > > numbers represented by paths which are completely within the
> > > > > > infinitely many levels of the tree or not?
>
> > > > > This sentence is quite difficult to pars. Yes, each real number is
> > > > > represented by a path which is completely within the infinitely many
> > > > > levels of the tree.
>
> > > > But not all real numbers coexist in the tree?
>
> > > Yes, all of them do at least once, and some twice.
>
> > But not side by side? More above or below each other?
>
> If WM visualizes paths as running from the root node downward, then sort
> of side by side. When two paths represent the same binary rational (the
> only reals having dual representation) there will be no other paths
> "between" them. From the last node they have in common, one will branch
> left once then forever branch right and the other will branch right once
> then forever branch left, like 00111... and 0.1000... in binary both
> represent the rational number 1/2.
>
>
>
> > > > Only a countable number
> > > > of them is admitted simultaneously?
>
> > > All of them simultaneoulsy, and some twice.
>
> > But not side by side?
>
> Whyever not, at least for those represented twice?

Do all paths exist side by side before the level number has increased
to infinity or not?

Regards, WM

From: mueckenh on
On 12 Apr., 20:02, Virgil <vir...(a)comcast.net> wrote:
> In article <1176397336.310678.13...(a)l77g2000hsb.googlegroups.com>,
>
>
>
>
>
> mueck...(a)rz.fh-augsburg.de wrote:
> > On 11 Apr., 20:00, Virgil <vir...(a)comcast.net> wrote:
> > > In article <1176300393.408149.165...(a)w1g2000hsg.googlegroups.com>,
> > > mueck...(a)rz.fh-augsburg.de wrote:
> > > > On 11 Apr., 03:56, "Dik T. Winter" <Dik.Win...(a)cwi.nl> wrote:
> > > > > You think so. In that case you should throw away *all* of mathematics,
> > > > > because there is (for instance) no direct proof that sqrt(n) is
> > > > > rational
> > > > > only if n is a square. When something is proven for an arbitrary
> > > > > element
> > > > > that means that is has been proven for all elements.
>
> > > > Yes, it has been proven for all elements (which exist).
>
> > > Name one which doesn't.
>
> > If I could name it, it would exist (at least as an idea).
>
> It follows that if you cannot name it , it does not exist, even as an
> idea.
>
> > But we cannot name more than countably many.
>
> That is not because there cannot be more than countably many things but
> because there cannot be more than countably many names.
>
> So that just as there can be more things than can be numbered by the
> naturals, there can be more things than can be given all different
> names.

There can be more things than names, but not more names than names.
Numbers are nothing unless being named.

> > > > > > You cannot apply Cantor's proof to the whole diagonal. In particular
> > > > > > because the diagonal does not exist. (It does not exist as a path
> > > > > > separated from all other paths in the binary tree.)
>
> > > This fixation on "separation" is puerile. Every path in any binary tree
> > > is separated from any other path from the children of some node onwards,
> > > and that is as much separation as is needed to give each path a unique
> > > identity.
>
> > But there are only countably many nodes!
>
> There are only countably many binary digit positions, but they are
> enough to create uncountably many binary sequences.

In the tree we see that every creation of another sequence requires a
node.
>
>
>
> > > > > Again, your mantra. Proof, please.
>
> > > > If all paths exist simultaneously, then there must exist uncountably
> > > > many in the infinite tree.
>
> > > Which is precisely the case! At least in mathematics.
>
> > But the tree is not in mathematics?
>
> If mathematically defined trees, finite or infinite, do not exist within
> mathematics, why does mathematics bother to define them? And it does
> bother to!-

Why then do not all real numbers of [0, 1] exist side by side
simultaneously in the so defined tree, while they exist in
mathematics?

Regards, WM

From: Virgil on
In article <1176409628.060084.284540(a)p77g2000hsh.googlegroups.com>,
mueckenh(a)rz.fh-augsburg.de wrote:

> On 12 Apr., 19:53, Virgil <vir...(a)comcast.net> wrote:
> > In article <1176397196.082457.230...(a)y5g2000hsa.googlegroups.com>,
> >
> >
> >
> >
> >
> > mueck...(a)rz.fh-augsburg.de wrote:

> > > > > But not all real numbers coexist in the tree?
> >
> > > > Yes, all of them do at least once, and some twice.
> >
> > > But not side by side? More above or below each other?
> >
> > If WM visualizes paths as running from the root node downward, then sort
> > of side by side. When two paths represent the same binary rational (the
> > only reals having dual representation) there will be no other paths
> > "between" them. From the last node they have in common, one will branch
> > left once then forever branch right and the other will branch right once
> > then forever branch left, like 00111... and 0.1000... in binary both
> > represent the rational number 1/2.
> >
> >
> >
> > > > > Only a countable number
> > > > > of them is admitted simultaneously?
> >
> > > > All of them simultaneoulsy, and some twice.
> >
> > > But not side by side?
> >
> > Whyever not, at least for those represented twice?
>
> Do all paths exist side by side before the level number has increased
> to infinity or not?

Only paths corresponding to binary rationals have a nearest neighbor,
and then only on one side, like like 00111... and 0.1000...,
corresponding to 1/2, will be neighbors, as no paths can come between
them.
From: Virgil on
In article <1176409858.797211.294160(a)p77g2000hsh.googlegroups.com>,
mueckenh(a)rz.fh-augsburg.de wrote:

> On 12 Apr., 20:02, Virgil <vir...(a)comcast.net> wrote:
> > In article <1176397336.310678.13...(a)l77g2000hsb.googlegroups.com>,

> There can be more things than names, but not more names than names.
> Numbers are nothing unless being named.

They are something if one wishes them to be. Whoever ruled that a number
without a name does not exist?
>

> In the tree we see that every creation of another sequence requires a
> node.

Only in finite trees do leaf nodes biject with paths. In infinite trees
there are no leaf nodes.
> >
> >
> >
> > > > > > Again, your mantra. Proof, please.
> >
> > > > > If all paths exist simultaneously, then there must exist uncountably
> > > > > many in the infinite tree.
> >
> > > > Which is precisely the case! At least in mathematics.
> >
> > > But the tree is not in mathematics?
> >
> > If mathematically defined trees, finite or infinite, do not exist within
> > mathematics, why does mathematics bother to define them? And it does
> > bother to!-
>
> Why then do not all real numbers of [0, 1] exist side by side
> simultaneously in the so defined tree, while they exist in
> mathematics?

And who says they do not? Every path defines a real in [0,1] as a
convergent subsequence of 1/2 + 1/4 + 1/8 + ...+ 1/2^(n-1) + ... ,
in which the nth term is included if and only if the path branches left
from its nth node.
From: mueckenh on
On 12 Apr., 23:48, Virgil <vir...(a)comcast.net> wrote:
> In article <1176409858.797211.294...(a)p77g2000hsh.googlegroups.com>,
>
> mueck...(a)rz.fh-augsburg.de wrote:
> > On 12 Apr., 20:02, Virgil <vir...(a)comcast.net> wrote:
> > > In article <1176397336.310678.13...(a)l77g2000hsb.googlegroups.com>,
> > There can be more things than names, but not more names than names.
> > Numbers are nothing unless being named.
>
> They are something if one wishes them to be. Whoever ruled that a number
> without a name does not exist?

In what form does it exist? In what form can it be used?
>
>
>
> > In the tree we see that every creation of another sequence requires a
> > node.
>
> Only in finite trees do leaf nodes biject with paths. In infinite trees
> there are no leaf nodes.

But nodes of separation.
>
>
>
>
>
>
>
> > > > > > > Again, your mantra. Proof, please.
>
> > > > > > If all paths exist simultaneously, then there must exist uncountably
> > > > > > many in the infinite tree.
>
> > > > > Which is precisely the case! At least in mathematics.
>
> > > > But the tree is not in mathematics?
>
> > > If mathematically defined trees, finite or infinite, do not exist within
> > > mathematics, why does mathematics bother to define them? And it does
> > > bother to!-
>
> > Why then do not all real numbers of [0, 1] exist side by side
> > simultaneously in the so defined tree, while they exist in
> > mathematics?
>
> And who says they do not?

That one who says that there are less than all paths side by side in
the tree.

Regards, WM