Once again, it has to be stressed that natural numbers are representable as points along a circle (where a circle is a finite length) and because a circle has a finite length, the position of the points (which represent the natural numbers) is not fixed among the infinitely many cases of odd or even constructions along the finite length.
As a result we have infinitely many constructions of natural numbers that can't determine if there is or there is no some natural number at the half length of the circles' circumference.
No |
N| natural numbers can determine it exactly because |
N| does not have an accurate value, or in other words, the whole idea of accurate transfinite numbers is wrong.
Let us look again at the real-line, where integers are definitely included along it as can be seen by the following diagram (
http://en.wikipedia.org/wiki/Point_at_infinity ):
[qimg]http://upload.wikimedia.org/wikipedia/commons/thumb/4/4c/Real_projective_line.svg/200px-Real_projective_line.svg.png[/qimg]
1) ∞ can't be positioned along the circle (as wrongly illustrated above) because |
R| is greater than any amount of points, which represent the real numbers along the modular model.
2) In the case of the modular arithmetic of the natural numbers, we are simply using a single direction of points along it, where also in this case ∞ can't be positioned along the circle because |
N| is greater than any amount of points, which represent the natural numbers along the modular model.
So, weather rational or irrational numbers are represented between the points that represent the natural numbers, or not, the position of the points that represent the numbers (no matter what kind of numbers) is not fixed along the finite length of the modular arithmetic form.