I was looking up facepalms but I couldn't find one exaggerated enough to convey the fail. |
It was just an observation.
I had guess my post would resemble one of the older thought experiments
If you scale a square by factor f = 1.3 + sum(i -> [0..n], 5*10^(i - 2)), where n is a natural number or infinity, then you're scaling it up by exactly f. f is a number that's strictly less than 1.36:
1.3555... - 1.36 = -0.00444...
1.36 is strictly less than 4, so for any natural or infinite value of n, f will be less than 4. More specifically, f will not be 4. Therefore, there's no value of n that makes this true:
Square->setScale(4) == Square->setScale(1.3 + sum(i -> [0..n], 5*10^(i - 2))) |
But the more, in your case, fives, you add, the more the square will enlarger, it won't just stop, so eventually it has to surpass 1.36, it won't just hault near to that. If the idea is false, which ofcouse it is, such an idea would be insane, we would need to say what indeed would happen to the square, if ALL the SF's decimals were met.
Can't you run so much that the distance you cover becomes the same amount of distance covered by someone who ran a longer distance than you? |
Enlarging a shape via equations if not the same of this. I just saw the banac tarski paradox, and thought "The decimals are infinite, however when enlarging a square by any whole number with infinite decimals, all decimals' impacts must be satified, to the very final Xnth.Yes it still imperitavely cannot surpass the post whole number, and yet imperitively cannot just stop at a point."
I was looking up facepalms but I couldn't find one exaggerated enough to convey the fail. |
I could not be asked, why do that, when IN THE SAME Xseconds I could learn Deutshe is german in german.
but I really don't know what else you could be asking. |
Well, perhaps hope will be found in the oncoming theorem. If I still am breathing, and moving that is.
Incredibly useful how soon these posts will die, and all the fine kettles of fish, never spoken of again