Compute \[\huge{\sqrt{2}^{\sqrt{2}^{\sqrt{2}^{\sqrt{2}^{\sqrt{2}^\ldots}}}}}\]
I'm not sure your expression makes any sense. Is the continued exponentiation finite or not?
It is infinite.
Ah, thanks for fixing it
Hope, you like it now. What will it be?
faliure
I'm pretty sure it's infinite. \[\left(\left(\left(\sqrt2^\sqrt2\right)^\sqrt2\right)^\sqrt2\right)^{\ldots}\\ \left(\left(\left( \left(2^\frac{1}{2}\right) ^\sqrt2\right)^\sqrt2\right)^\sqrt2\right)^{\ldots}\\ \left(\left( \left(2^\frac{\sqrt2}{2}\right) ^\sqrt2\right)^\sqrt2\right)^{\ldots}\\ \left( \left(2^\frac{2}{2}\right)^\sqrt2\right)^{\ldots}\\ \left(2^\sqrt2\right)^{\ldots}\\ \left(\left(2^\sqrt2\right)^\sqrt2\right)^{\ldots}\\ \left(\left(\left(2^2\right)^\sqrt2\right)^\sqrt2\right)^{\ldots}\\ \left(\left(4^\sqrt2\right)^\sqrt2\right)^{\ldots}\\ \left(4^2\right)^{\ldots}\] Continuing in this way, the base keeps getting squared.
The order is wrong. Compare: \[2^{2^3}=2^8=256,\quad (2^2)^3=4^3=64.\]
why don't let whole of it = x ?
then if, you observe properly, you'll be reduced to [ sqrt(2) ]^x = x
Nice, what will it be?
hmm, we get stuck ther! -_-
there*
2^(x/2) = x => 2^x = x^2 symmetrically, there is a solution , see that ?
integer solutions, 2 and 4...
which one will it be ?
Now tell me, what is the answer: 2 or 4?
i think 2
Why not 4?
because while squaring, we attached an extra root, x=4
Hm... \(\sqrt 2^4=4\). Why do you call it "extra root"?
:O .. let me think more...
2 also fits in though.
on the calculator, it approaches 2, I am not too sure how can we prove that ?
Let \(\epsilon > 0\)
A medal will be given only if you prove this.
-_-
arey to hell with the medal !
lol
LOL!!
Can somebody say what means "arey to hell" ?
ignore "arey" I meant To Hell with the medal.
Ok. I found an interesting proof to this. Hope, you will find another interesting proof.
unable to prove, what proof you got ?
I mean I am unable to prove*
|dw:1362220984668:dw| Hope, you understand.
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