So at school I was thinking "why don't I create a function that someone can use to calculate numbers in their head" so I came up with the Ω function for calculation, it's basically 1Ω=1..100, 2Ω=2...200 and so on, but how do we get that number? Do we use the Riemann zeta function? Euler gamma function? I need your help to design a concept, comment ideas below!
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loork at dis:
n=1∑infHn2xn=x1[n=1∑infHn2xn+n=2∑infn21xn−2n=2∑infnHnxn]−1
2n=1∑inf(k=1∑nk1)2(21)n+2L−4n=1∑infn∑k=1nk1(21)n
S=6π2+ln2(2)
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btw, is there any chance that you might be known as Noted Scholar in other accounts? I'm a big fan of noted scholar.
You can even write in integral representation:
nΩ=∫0∞ζ(n+1)(ex−1)xn dx∫0∞ζ(100n+1)(ex−1)x100n dx
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@Ark3 Graptor there?
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I explained a adjustment to your theory below on your first comment
That's quite a bit of detail
So basically you are defining nΩ=n!(100n)! right?
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I guess so
No wait it's this: 1Ω=1,2,3,4,5,6,7...100,2Ω=2,4,6,8,10,12,14...200,etc The thing is is how to obtain one specific number from that selection withought randomly picking one
So we have nΩ=Γ(n+1)Γ(100n+1) , got till here?
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Better