Re: infinity
- From: Tony Orlow (aeo6) <aeo6@xxxxxxxxxxx>
- Date: Mon, 29 Aug 2005 10:57:05 -0400
David R Tribble said:
> Virgil said:
> >> Only for computer languages for which there is always some limit on
> >> both S and L. For non-computer languages, there is no inherent
> >> limit on either S or L, so no inherent limit on N. That TO limits
> >> himself does not mean that everyone is similarly limited.
> >>
> Tony Orlow (aeo6) wrote:
> >> If you limit your words to a finite length while using a finite
> >> alphabet, then you have limited the language as a whole to a finite
> >> maximum size.
> >>
> Virgil said:
> >> See, TO is doing it again.
> >>
> Tony Orlow (aeo6) wrote:
> > Actually I am exactly right, and you offer no alternative formula or
> > interpretation.
>
> Sure, given S symbols in L digits, you can represent exactly L^S
> unique values. But why does this apply to natural numbers?
S^L you mean. This applies to digital numbers, which for each base consistute a
symbolic language. If you are required to have infinite strings in an infinite
set of strings from a finite alphabet, then any infinite set of normal digital
numbers must have infinitely long strings, as we do in the reals, to the right
of the digital point. For a whole number, the infinite digits must be to the
left, and this means the value is infinite, given how digital numbers work.
>
> Why is there some fixed (presumably finite) upper limit on the
> number of digits allowed for a natural number? Isthere some
> law of numbers that has previously gone unnoticed?
If there are any non-zero digits infinitely far to the left of the digital
point, then that represents an infinite value. If infinite values are not
allowed, then one cannot have non-zero digits infinitely far to the left of the
point.
>
> It would help if you could specify what this limit L is. Something
> more concrete than 'N' or ceil(log(N)), whatever those are.
There is only a limit of finiteness on the length of the number if you limit
its value to finite values.
>
> >
> Perhaps a little device might help. Consider Tr(x), a function
> that takes the decimal fraction part of x and reverses its digits,
> so that the 10^-1 digit of x becomes the 10^0 digit of Tr(x), the
> 10^-2 digit becomes the 10^1 digit, etc. For example, Tr(1/4) is
> Tr(.25), which is 52. And Tr(6/25) = Tr(.24) = 42.
>
> Now perhaps you can tell me how digits Tr(1/3) = ...333 has?
Infinite. TR(1/3)=N/3-1/3
> Or maybe even Tr(pi) = ...3823979853562951413? If you know L,
> then perhaps can you tell me what the first (leftmost) digit of
> Tr(pi) is? Is Tr(pi) greater or less than, say, Tr(sqrt(2))?
I have no idea at this point, since I can't possibly know the Nth digit of Pi.
>
> We cantankerous Cantorians will point out that Tr(x) is undefined
> for all x that are not some multiple of 1/10^k for some finite k,
> i.e., Tr(x) is undefined for values of x with nonterminating
> decimal fractions, which produce infinite (divergent) values
> for Tr(x). That should not stop you, of course, from declaring
> that Tr(x) is well-defined for any x, since you posit the existence
> of infinite integers.
Eggggzactly!
>
>
--
Smiles,
Tony
.
- Follow-Ups:
- Re: infinity
- From: Virgil
- Re: infinity
- From: Virgil
- Re: infinity
- References:
- Re: infinity
- From: Randy Poe
- Re: infinity
- From: aeo6
- Re: infinity
- From: Randy Poe
- Re: infinity
- From: aeo6
- Re: infinity
- From: David R Tribble
- Re: infinity
- From: aeo6
- Re: infinity
- From: David R Tribble
- Re: infinity
- From: aeo6
- Re: infinity
- From: Nathan
- Re: infinity
- From: aeo6
- Re: infinity
- From: Virgil
- Re: infinity
- From: aeo6
- Re: infinity
- From: Virgil
- Re: infinity
- From: aeo6
- Re: infinity
- From: David R Tribble
- Re: infinity
- Prev by Date: Re: What should a mod() function do then?
- Next by Date: Re: Continuity of inverse of continuous function
- Previous by thread: Re: infinity
- Next by thread: Re: infinity
- Index(es):
Relevant Pages
|
Loading