Which Equation Deserves the Title of the World's Most Beautiful?

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SUMMARY

The forum discussion centers around the debate on which equations deserve the title of the "World's Most Beautiful." Participants highlight notable equations from mathematics and physics, including Euler's identity \( e^{i\pi} + 1 = 0 \), Einstein's mass-energy equivalence \( E=mc^2 \), and Maxwell's equations. The conversation also touches on the elegance of the Riemann zeta function and its implications in number theory. Overall, the discussion emphasizes the aesthetic appeal and intellectual significance of these equations in their respective fields.

PREREQUISITES
  • Understanding of basic mathematical concepts, including complex numbers and exponential functions.
  • Familiarity with fundamental physics principles, particularly relativity and energy-mass equivalence.
  • Knowledge of Maxwell's equations and their role in electromagnetism.
  • Basic comprehension of the Riemann zeta function and its relevance to number theory.
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  • Explore the implications of Euler's identity in complex analysis.
  • Study the derivation and applications of Maxwell's equations in electromagnetic theory.
  • Investigate the Riemann hypothesis and its significance in modern mathematics.
  • Learn about the continuity equation in fluid dynamics and its physical interpretations.
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Mathematicians, physicists, students of science, and anyone interested in the beauty and significance of mathematical equations.

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Lets elect World's most beautiful equation!

Two categories:

1.Mathematics
2.Physics

My personal favourites would be:

1. e^{i\pi}+1=0 (Do i need to give an argument?)

2. E=mc^{2} (I know its mainstream.. but i doesent get much more simple and general than this!)
 
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<br /> i\hbar\frac{\partial\Psi}{\partial t} = \frac{\hbar^2}{2m}\frac{\partial^2\Psi}{\partial x^2} + V\Psi<br />
 
I'd say: 1 = 0. From this one, you can derive everything :biggrin:
 
Maxwell's equations of EM?

\nabla \cdot D= \rho
\nabla \cdot B=0
\nabla \times E=- \partial B/ \partial t
\nabla \times H=J+ \partial D/ \partial t
 
p = \frac{h}{\lambda}
 
Ed Aboud said:
<br /> i\hbar\frac{\partial\Psi}{\partial t} = \frac{\hbar^2}{2m}\frac{\partial^2\Psi}{\partial x^2} + V\Psi<br />

I think you are missing a minus sign.
 
1/. cos²(x) + sin²(x) = 1
2/. ω² = k/m
 
Or Entity? said:
2. E=mc^{2} (I know its mainstream.. but i doesent get much more simple and general than this!)

Isn't it only an approximation? :wink:
 
FD=½ρv2ACD

Some engineering fudgeamatics
 
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  • #10
For me, it's:
i2=-1
 
  • #11
Borek said:
Isn't it only an approximation? :wink:

It's true http://nz.news.yahoo.com/a/-/world/5160859/einsteins-emc2-proven-103-years/
 
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  • #12
As far as I remember mc2 is only a first term of the power series. Next terms are smaller by at least c2 factor (or even c4, my memory fails me here), so they can be safely ignored, but E=mc2 is still only an approximation.
 
  • #13
Borek said:
As far as I remember mc2 is only a first term of the power series. Next terms are smaller by at least c2 factor (or even c4, my memory fails me here), so they can be safely ignored, but E=mc2 is still only an approximation.
I think you refer this equation:

E2=m2c4+p2c2
 
  • #15
Borek said:
As far as I remember mc2 is only a first term of the power series. Next terms are smaller by at least c2 factor (or even c4, my memory fails me here), so they can be safely ignored, but E=mc2 is still only an approximation.

You may referring to the Taylor expansion (with respect to the velocity) for the relativistic energy:
http://en.wikipedia.org/wiki/Kinetic_energy
expressed as
E_{rel}=m_{rel}c^2=m_0c^2 \frac{1}{\sqrt{1-(v/c)^2}}=m_0c^2\bigg(1+\frac{1}{2}(v/c)^2+\frac{3}{8}(v/c)^4+\ldots\bigg) \approx m_0c^2 \bigg( 1+\frac{1}{2}(v/c)^2 \bigg)\mbox{[for small (v/c)]}

The rest energy E_0=m_0c^2 is a Lorentz invariant, and E_{rel} and m_{rel} are observer-dependent quantities.

From a special-relativistic viewpoint, these are exact relations.

From a Newtonian-physics viewpoint, one often refers to some of these terms as "relativistic corrections".
 
  • #16
E= ir !
 
  • #17
My bad

i\hbar\frac{\partial\Psi}{\partial t} = - \frac{\hbar^2}{2m}\frac{\partial^2\Psi}{\partial x^2} + V\Psi
 
  • #18
Well, it may be hard to say. I am a junior in high school, so my physics knowledge is limited, however, I am fond of

i^2 = -1

Imaginary x Imaginary = Real. Seems silly but awesome.

Hayley
 
  • #19
Maxwell`s velocity distribution formula

f(v) = 4 \pi [ m / 2 \pi k T ]^(3/2) v^2 e^(-m v^2 / 2 k T )

The elegance because he derived this formula just by logical reasoning
almost without calculus or any kind of information. Intellectual wizardy.
 
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  • #20
zeta(s)=1+(2^-s)+(3^-s)+(4^-s)+...

- the zeta function from which the Riemann hypothesis derives.
 
  • #21
E=mc^2.
 
  • #22
contours.jpg

zetafun1.gif
 

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  • #23
0! = 1

I don't know if it is beautiful; but it is pretty weird.
 
  • #24
The equation relating primes to zeta zeros:

\psi(x)=-\frac{1}{2\pi i}\mathop\int\limits_{c-i\infty}^{c+i\infty} \frac{\zeta&#039;(s)}{\zeta(s)}\frac{x^s}{x}ds
 
  • #25
jackmell said:
The equation relating primes to zeta zeros:

\psi(x)=-\frac{1}{2\pi i}\mathop\int\limits_{c-i\infty}^{c+i\infty} \frac{\zeta&#039;(s)}{\zeta(s)}\frac{x^s}{x}ds

Agreed as well.

I favorited this just because it's one of my favorite studies of zeta so far.

http://arxiv.org/PS_cache/math/pdf/0309/0309433v1.pdf

X-RAY OF RIEMANN’S ZETA-FUNCTION
J. ARIAS-DE-REYNA
1. Introduction
This paper is the result of the effort to give the students of the subject
Analytic Number Theory an idea of the complexity of the behaviour of the
Riemann zeta-function. I tried to make them see with their own eyes the
mystery contained in its apparently simple definition.
There are precedents for the figures we are about to present. In the
tables of Jahnke-Emde [9] we can find pictures of the zeta-function and
some other graphs where we can see some of the lines we draw. In the
dissertation of A. Utzinger [21], directed by Speiser, the lines Re (s) = 0
and Im(s) = 0 are drawn on the rectangle (−9, 10) × (0, 29).
Besides, Speiser’s paper contains some very interesting ideas. He proves
that the Riemann Hypothesis is equivalent to the fact that the non trivial
zeros of ′(s) are on the right of the critical line. He proves this claim
using an entirely geometric reasoning that is on the borderline between the
proved and the admissible. Afterwards rigorous proofs of this statement
have been given.
 
  • #26
Both of your choices, Entity, are my favourites! I just love those equations and the first one, i understood only a few days ago!

So for me, they are the best equations! :smile:
 
  • #27
Does the Mandelbrot Set count as an equation? It's really more of an algorithm I suppose.
 
  • #28
2+2=5
 
  • #29
DR13 said:
2+2=5

How Orwellian of you.
 
  • #30
DR13 said:
2+2=5

:smile:
 

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