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On 11/27/24 5:12 AM, WM wrote:Tossing WM's failures in definition into your mathematician's waste-bin,On 26.11.2024 18:50, Richard Damon wrote:>On 11/26/24 11:59 AM, WM wrote:>On 26.11.2024 16:06, Richard Damon wrote:>On 11/26/24 6:24 AM, WM wrote:>On 26.11.2024 12:15, FromTheRafters wrote:WM pretended :>Then your |N| is an imprecise measure. My |N| is precise.It is impossible to change |ℕ| by 1 or more.>
Right, sets don't change. The set {2,3,4,...} does not equal the
set of natural numbers, but |{2,3,4,...}| does equal |N|.
>
|{2,3,4,...}| = |N| - 1 =/= |N| .Then your measure is incorrect, as by the DEFINITION of measures of>
infinite sets, all countably infinite sets have the same "measure".
That is one special definition of a very imprecise measure. We can
do better.
But maybe you can't and get something consistant.
Of course. |{1, 2, 3, 4, ...}| = |ℕ| and |{2, 3, 4, ...}| = |ℕ| - 1 is
consistent.
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Regards, WM
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So you think, but that is because you brain has been exploded by the
contradiction.
>
We can get to your second set two ways, and the set itself can't know
which.
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We could have built the set by the operation of removing 1 like your
math implies, or we can get to it by the operation of increasing each
element by its successor, which must have the same number of elements,
so we prove that in your logic |ℕ| - 1 == |ℕ|, which is one of Cantor's
claim, and what you want to refute, but comes out of your "logic"
>
So saying that |ℕ| -1 is different than |ℕ| just makes your logic
inconsistant.
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