Prime Numbers Wiki
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<math>\lim_{x\to\infty}\frac{\pi(x)}{x/\ln(x)}=1</math>
 
<math>\lim_{x\to\infty}\frac{\pi(x)}{x/\ln(x)}=1</math>
   
where <math>\pi(x)</math> is the number of primes up to and including <math>x</math>. This means that for any number <math>x</math>, the number of primes up to and including <math>x</math> approaches <math>x</math> divided by the the log to base e (or the natural log) of <math>x</math> as <math>x</math> approaches infinity and <math>{x/\ln(x)}</math> becomes a better approximation of <math>\pi(x)</math> as <math>x</math> grows larger. This also means that:
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where <math>\pi(x)</math> is the number of primes up to and including <math>x</math>. This means that for a number <math>x</math>, the number of primes up to and including <math>x</math> approaches <math>x</math> divided by the the log to base e (or the natural log) of <math>x</math> and <math>{x/\ln(x)}</math> becomes a better approximation of <math>\pi(x)</math> as <math>x</math> grows larger. This also means that:
   
 
<math>P_x \approx x\ln(x)</math>, where <math>P_x</math> is the <math>x</math>th prime number.
 
<math>P_x \approx x\ln(x)</math>, where <math>P_x</math> is the <math>x</math>th prime number.
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{{Important Pages}}
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[[Category:Important Pages]]
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[[Category:Theorems and Proofs]]
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[[Category:History of Prime Numbers]]

Latest revision as of 07:08, 8 February 2017

The Prime Number Theorem (or the PNT) is a theorem that concerns the distribution of primes and, subsequently, the gaps between primes. Its first proof date is not known.

Statement of Theorem

The theorem, formally stated, says that:

where is the number of primes up to and including . This means that for a number , the number of primes up to and including approaches divided by the the log to base e (or the natural log) of and becomes a better approximation of as grows larger. This also means that:

, where is the th prime number.