Should I be amazed?

Imagine there's a mathematical constant k1k_1 and that your mathematical study of the natural world shows that k1k_1 is "everywhere". You are very happy at having made such a profound mathematical discovery. But ... along comes someone else and in the same things you found k1k_1, he finds another mathematical constant k2k_2. A third person then finds k3k_3 (a third mathematical constant) exactly in the same places you and the other guy found k1k_1 and k2k_2.

I mean 36=2×1836 = 2 \times 18, but 36=4×936 = 4 \times 9, just as 5=2+35 = 2 + 3 and also 5=1+45 = 1 + 4.
 
Imagine there's a mathematical constant k1k_1 and that your mathematical study of the natural world shows that k1k_1 is "everywhere". You are very happy at having made such a profound mathematical discovery. But ... along comes someone else and in the same things you found k1k_1, he finds another mathematical constant k2k_2. A third person then finds k3k_3 (a third mathematical constant) exactly in the same places you and the other guy found k1k_1 and k2k_2.

I mean 36=2×1836 = 2 \times 18, but 36=4×936 = 4 \times 9, just as 5=2+35 = 2 + 3 and also 5=1+45 = 1 + 4.
And?

-Dan
 
It all depends on (I think): R=a1k1n1=a2k2n2=R = a_1 k_1 ^{n_1} = a_2 k_2 ^{n_2} = \dots , where R is a natural world number (ratio?) and the a's and n's are integers and the k's are different mathematical constants.

I think a better way to state the above is R=f1(k1)=f2(k2)==fn(kn)R = f_1\left(k_1\right) = f_2\left(k_2\right) = \dots = f_n\left(k_n\right)
 
It all depends on (I think): R=a1k1n1=a2k2n2=R = a_1 k_1 ^{n_1} = a_2 k_2 ^{n_2} = \dots , where R is a natural world number (ratio?) and the a's and n's are integers and the k's are different mathematical constants.

I think a better way to state the above is R=f1(k1)=f2(k2)==fn(kn)R = f_1\left(k_1\right) = f_2\left(k_2\right) = \dots = f_n\left(k_n\right)
And?

-Dan
 
What does any of this have to do with the OP?

-Dan
I should think the comment is apropos. There are mathematical relationships in nature, but there are as many other mathematical relationships too. I'm not denying the existence of such relationships. I just want to know if they're special.
 
I should think the comment is apropos. There are mathematical relationships in nature, but there are as many other mathematical relationships too. I'm not denying the existence of such relationships. I just want to know if they're special.
Define "special." You seem uncommonly interested in the constants of Mathematics and Nature as if they have any specific meaning as to their values. So far as we know, they do not.

-Dan
 
Define "special." You seem uncommonly interested in the constants of Mathematics and Nature as if they have any specific meaning as to their values. So far as we know, they do not.

-Dan
Google should show interesting results (much better than I can). By "special" I mean unique/different/special/extraordinary/worthy-of-note/etc. If I find φ\varphi in a sun flower's inflorescence, is that special? If I find φ\varphi in rabbit populations, does this specialness increase?
 
Google should show interesting results (much better than I can). By "special" I mean unique/different/special/extraordinary/worthy-of-note/etc. If I find φ\varphi in a sun flower's inflorescence, is that special? If I find φ\varphi in rabbit populations, does this specialness increase?
I have no idea why ϕ\phi shows up in so many places. If you want to feel that's special, then fine.

But it is not special in the context of the OP.

-Dan
 
I have no idea why ϕ\phi shows up in so many places. If you want to feel that's special, then fine.

But it is not special in the context of the OP.

-Dan
That's correct I feel. So it's special in some other context. I don't know which one.
 
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