Transcendence of pi
Builds on Transcendental element
Statement
The number is transcendental over .
Remarks
The statement follows from the Lindemann–Weierstrass theorem: is transcendental for every nonzero algebraic number . Indeed, if were algebraic, then would be algebraic and nonzero, but is algebraic. So is also transcendental, and it is not constructible.
History
Charles Hermite proved the transcendence of in 1873. Ferdinand von Lindemann proved in 1882 that is transcendental for every nonzero algebraic , and so that is transcendental. Karl Weierstrass proved a more general statement in 1885.
Reading path
To understand this page from the ground up, read these 14 pages in order. The foundations come first.
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- no evidence level
- Group concept
- Ring definition
- Commutative ring definition
- Polynomial ring definition
- Subring definition
- Unit of a ring definition
- Polynomial evaluation definition
- Field definition
- Root of a polynomial definition
- Subfield definition
- Field extension definition
- Algebraic element definition
- Transcendental element definition
- Transcendence of pi statement
Where this leads
2 pages build on this one.
Further reading
- Web https://en.wikipedia.org/wiki/Lindemann%E2%80%93Weierstrass_theorem, Transcendence of e and π
- Web https://en.wikipedia.org/wiki/Lindemann%E2%80%93Weierstrass_theorem, lead section
About this page
| Tag | 0G0F7FGCGP |
|---|---|
| URI | m2://0G0F7FGCGP |
| Aliases | lindemann-s-theorem |
| Kind | statement, theorem |
| Writing | W0 stub |
| MSC | 11J81 |
| Status | This copy of the site has no build data. Run m2 status 0G0F7FGCGP. |
| Uses | Transcendental element |
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