Examples of using Finite simple in English and their translations into Russian
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The proof relies on the classification of finite simple groups.
The Schur multipliers of the finite simple groups are given at the list of finite simple groups.
For a complete list of these exceptions see the list of finite simple groups.
The Schur covers of the finite simple groups are known, and each is an example of a quasisimple group.
The belief has now become a theorem- the classification of finite simple groups.
As a result, families and subfamilies of finite simple groups were identified multiple times.
CA-groups were important in the context of the classification of finite simple groups.
PSL3(3) In other words a non-cyclic finite simple group must have a subquotient isomorphic to one of these groups.
This fact was a motivation for completing the classification of finite simple groups.
In the classification of finite simple groups, the Ree groups 2G2(32n+1) are the ones whose structure is hardest to pin down explicitly.
They were the last of the infinite families of finite simple groups to be discovered.
Many more finite simple groups are Hurwitz groups; for instance all but 64 of the alternating groups are Hurwitz groups, the largest non-Hurwitz example being of degree 167.
A sporadic group is one of the 26 exceptional groups found in the classification of finite simple groups.
The groups of Lie type are the finite simple groups constructed from simple algebraic groups over finite fields.
The non-solvable ones were classified by Thompson during his work on finding all the minimal finite simple groups.
This can be used to show that many finite simple groups, including the monster group, are Galois groups of extensions of the rationals.
This section lists some results that have been proved using the classification of finite simple groups.
So far no one has yet found a clean uniform description of the finite simple groups similar to the parameterization of the compact Lie groups by Dynkin diagrams.
This theorem generalizes to projective groups of higher dimensions and gives an important infinite family PSL(n,q) of finite simple groups.
These methods were particularly useful in the classification of finite simple groups with low rank Sylow 2-subgroups.
Ree realized that a similar construction could be applied to the Dynkin diagrams F4 and G2,leading to two new families of finite simple groups.
In 1972 Gorenstein(1979, Appendix) announced a program for completing the classification of finite simple groups, consisting of the following 16 steps: Groups of low 2-rank.
Diagram automorphisms in turn yield additional Lie groups and groups of Lie type,which are of central importance in the classification of finite simple groups.
The classification theorem states that the list of finite simple groups consists of 18 countably infinite families, plus 26 exceptions that do not follow such a systematic pattern.
This group turns out not to be isomorphic to any member of the infinite families of finite simple groups and is called sporadic.
The classification of finite simple groups states that every finite simple group is cyclic, or alternating, or in one of 16 families of groups of Lie type, or one of 26 sporadic groups.
A fairly recent topic of research is to find efficient presentations for all finite simple groups with trivial Schur multipliers.
Daniel Gorenstein announced in 1983 that the finite simple groups had all been classified, but this was premature as he had been misinformed about the proof of the classification of quasithin groups.
A group of odd order has no involutions,so to carry out Brauer's program it is first necessary to show that non-cyclic finite simple groups never have odd order.
The Feit-Thompson theorem showed that the classification of finite simple groups using centralizers of involutions might be possible, as every nonabelian simple group has an involution.