e^(i*pi) == 1
[1]: http://www.math.utah.edu/~palais/pi.pdf, http://www.math.utah.edu/~palais/pi.html
e^(i*pi) == 1
[1]: http://www.math.utah.edu/~palais/pi.pdf, http://www.math.utah.edu/~palais/pi.html
It contains 0, 1, +, , ^, which are sufficient to express all of elementary natural arithmetics (unless I'm mistaken) -- all natural numbers can be expressed by adding enough ones to a zero (0, 0+1, 0+1+1, ...), and if I recall correctly, + and aren't enough to state all the truths in natural arithmetics so ^ is needed.
There is a very interesting paper on this called "The saga of the High School Identities" by S. Burris (http://www.math.uwaterloo.ca/~snburris/htdocs/MYWORKS/PREPRI...)
Moreover, it contains three very attractive (if not the most attractive) mathematical constants we know. There is so much we don't know about their relationship. We have no idea if any of these numbers is transcendental or not: pi + e, pi − e, pi*e, pi/e, pi^pi, e^e, pi^e. We don't even know if half of them are even irrational or not (therefore, we don't know if pi is just another facet of e, or maybe an entirely different object!)
So to see all this (and more; one could say so much more) in one equation so terse is so surreal a feeling.
Well, personally I don't favor zeros in equation. What's the point of 1+0=1 ?
Leaving 0 on the right side looks so unbalanced.
An interesting fact is that this is sufficient to express + and :
a + 0 = a a + (succ b) = succ (a + b)
a 1 = a a * (succ b) = a + a * b
One way to look at structures (like, say, natural numbers) is too look at what really defines them, as in, what is absolutely necessary and sufficient to define them? In this case, 0 and succ is.
Note that I'm not saying you're wrong, everyone is entitled to their own definition of beauty. Isn't that the beauty of it?
I understand and concur you :)
But I don't think Euler's identity is meant to serve this purpose. Maybe some other formula.
It's hard to un-like something once you already liked it very much. First impression matters. How about e^(i*pi)-1==0 instead?
P.S. Please email me if you're interested in pursuing this further; I have a project (launching June 28) that I think might convince you of the error of your ways. :-)
I think the inclusion of 1 is pretty significant, in terms of the contrast between 0 and 1. Maybe that sounded strange -- oh well, I'm not a mathematician by any means. :)