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Mathematics 17 Online
OpenStudy (anonymous):

Can somebody explain this to me?

OpenStudy (anonymous):

I'm currently in Calculus 2, and I'm assuming I shouldn't know this yet, but I've seen it over the interwebz and it sounds interesting. \[e^{i \Pi} + 1 = 0\]

Parth (parthkohli):

Yeah, this is Euler's Identity.

Parth (parthkohli):

In general, Euler says that,\[e^{i\pi} =-1\]Why is this beautiful? It is because we are operating on two transcendental and an imaginary number, where the result yields a simple and cute integer.

Parth (parthkohli):

Arguably, this is the most beautiful equation, apart from the Batman Equation which was discovered recently.

Parth (parthkohli):

I assume that you already know the following:\[i = \sqrt{-1}\]\[\pi = {C \over d}\]\[e = \lim_{x \to \infty } {\left( 1 + {1 \over n}\right)^n}\]

OpenStudy (anonymous):

Yes I understand those three ideas.

Parth (parthkohli):

Very well, so did you understand Euler's Identity?

Parth (parthkohli):

It takes a lifetime, literally, to derive it.

OpenStudy (anonymous):

I don't understand how this all comes together though...it sounds extremely interesting.

OpenStudy (anonymous):

What level of mathematics is this necessarily under where I would learn it in a college setting?

OpenStudy (anonymous):

do u know about\[e^{i\theta}=\cos \theta+i \sin \theta\]???

OpenStudy (anonymous):

No, I have no prior knowledge of these ideas.

OpenStudy (anonymous):

ok :)

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