[Home]History of P-adic numbers

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Revision 27 . . (edit) December 8, 2001 7:52 am by AxelBoldt [link]
Revision 26 . . (edit) December 8, 2001 7:49 am by AxelBoldt [link]
Revision 25 . . November 29, 2001 12:06 am by AxelBoldt
Revision 24 . . November 29, 2001 12:03 am by AxelBoldt
Revision 23 . . November 28, 2001 8:55 am by Damian Yerrick [See also binary]
Revision 22 . . November 22, 2001 1:59 am by AxelBoldt
Revision 21 . . November 19, 2001 8:39 am by AxelBoldt [+local global principle]
Revision 20 . . November 19, 2001 7:22 am by AxelBoldt [reorganization]
Revision 19 . . November 19, 2001 7:21 am by AxelBoldt [reorganization]
Revision 18 . . November 19, 2001 7:21 am by AxelBoldt [reorganization]
Revision 17 . . November 19, 2001 7:19 am by AxelBoldt [reorganization]
Revision 16 . . November 19, 2001 7:18 am by AxelBoldt [reorganization]
Revision 15 . . November 19, 2001 7:18 am by AxelBoldt [reorganization]
Revision 14 . . November 19, 2001 7:17 am by AxelBoldt [reorganization]
Revision 13 . . November 19, 2001 7:17 am by AxelBoldt [reorganization]
Revision 12 . . November 19, 2001 7:17 am by AxelBoldt [reorganization]
Revision 11 . . November 15, 2001 8:18 am by (logged).182.125.xxx
  

Difference (from prior major revision) (minor diff, author diff)

Changed: 1c1
The p-adic numbers are an extension of the rational numbers first described by [Kurt Hensel]? in 1897. They have been used to solve several problems in number theory, many of them using [Helmut Hasse]?'s [local-global principle]?, which roughly states that an equation can be solved over the rational numbers if it can be solved over the real numbers and over the p-adic numbers for every prime number p.
For every prime number p, the p-adic numbers form an extension of the rational numbers first described by [Kurt Hensel]? in 1897. They have been used to solve several problems in number theory, many of them using [Helmut Hasse]?'s [local-global principle]?, which roughly states that an equation can be solved over the rational numbers if it can be solved over the real numbers and over the p-adic numbers for every prime p.

Changed: 3c3
If p is a prime number, then any integer can be written as a p-adic expansion in the form
If p is a fixed prime number, then any integer can be written as a p-adic expansion in the form

Changed: 33,34c33,34
We start with the [inverse limit]? of the abelian groups
Zpn: a p-adic integer is then a sequence
We start with the inverse limit of the rings
Zpn (see modular arithmetic): a p-adic integer is then a sequence

Changed: 36c36
Zpn, and if n<m'',
Zpn, and if n<m,

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