An element of Commutative ring is called a unit if it possesses a multiplicative inverse.
| FactSnippet No. 1,101,040 |
An element of Commutative ring is called a unit if it possesses a multiplicative inverse.
| FactSnippet No. 1,101,040 |
Localization of a ring is a process in which some elements are rendered invertible, i e multiplicative inverses are added to the ring.
| FactSnippet No. 1,101,041 |
For example, all ideals in a commutative ring are automatically two-sided, which simplifies the situation considerably.
| FactSnippet No. 1,101,042 |
Ideals of a ring are the submodules of, i e, the modules contained in.
| FactSnippet No. 1,101,043 |
For various applications, understanding the ideals of a Commutative ring is of particular importance, but often one proceeds by studying modules in general.
| FactSnippet No. 1,101,044 |
Any Commutative ring has two ideals, namely the zero ideal and, the whole Commutative ring.
| FactSnippet No. 1,101,045 |
The Commutative ring, where is an integer, is the Commutative ring of integers modulo.
| FactSnippet No. 1,101,046 |
Similarly as for other algebraic structures, a Commutative ring homomorphism is thus a map that is compatible with the structure of the algebraic objects in question.
| FactSnippet No. 1,101,047 |
The Commutative ring of germs of holomorphic functions on a Riemann surface is a discrete valuation Commutative ring.
| FactSnippet No. 1,101,048 |
Any regular local Commutative ring is a complete intersection Commutative ring, but not conversely.
| FactSnippet No. 1,101,049 |
Ring R is a set-theoretic complete intersection if the reduced ring associated to R, i e, the one obtained by dividing out all nilpotent elements, is a complete intersection.
| FactSnippet No. 1,101,050 |
Depth of a local ring R is the number of elements in some maximal regular sequence, i e, a sequence a1,.
| FactSnippet No. 1,101,051 |
Any Commutative ring that is isomorphic to its own completion, is called complete.
| FactSnippet No. 1,101,052 |