Examples of using Linear group in English and their translations into Russian
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These substitutions form the special linear group SL2.
The projective linear group PGL(2,C) acts on the Riemann sphere by the Möbius transformations.
Let G{\displaystyle G}be a finitely generated linear group over a field.
Typically, a linear group with an effective aperture of about 4 mm in width is optimal.
That subgroup is isomorphic to the projective special linear group PSL2(F11) over the field of 11 elements.
This construction generalizes the usual construction of the unitary group from the general linear group.
The general linear group GL(2, 7) consists of all invertible 2×2 matrices over F7, the finite field with 7 elements.
The stabilizer of 3 points is simple andisomorphic to the projective special linear group PSL34.
Its symmetry group is the projective special linear group L2(11), so it has 660 symmetries.
The set of suchmatrices(of fixed size n) form a group known as the special linear group.
The special linear group SL(2,R) which consists of the set of 2×2 matrices with real entries whose determinant equals +1.
Roughly speaking, it shows that all such groups are similar to the general linear group over a field.
Another reductive group is the special linear group SL(n) over a field k, the subgroup of matrices with determinant 1.
An example would be the subgroup O(2),the orthogonal group, inside the general linear group GL2, R.
For the general linear group, this decomposition is the QR decomposition, and the deformation retraction is the Gram-Schmidt process.
A representation of a group is a mapping from the group elements to the general linear group of matrices.
For example, An(q)may mean either the special linear group SL(n+1, q) or the projective special linear group PSLn+1, q.
The group action factorsthrough the quotient PSL(2,R) the 2× 2 projective special linear group over R.
The projective general linear group acting on lines in a projective space of dimension at least 3 is a rank-3 permutation group. .
Philip Kutzko(1980) proved the local Langlands conjectures for the general linear group GL(2, K) over local fields.
In mathematics, the projective special linear group PSL(2, 7)(isomorphic to GL(3, 2)) is a finite simple group that has important applications in algebra, geometry, and number theory.
None of these examples has a finite generating set,and any periodic linear group with a finite generating set is finite.
Since all of the above matrices have unit determinant over F3,this is a representation of Q8 in the special linear group SL2, 3.
Furthermore, his method worked, not only for the special linear group, but also for some of its subgroups such as the special orthogonal group. .
The systematic exploration of finite groups of Lie type started with Camille Jordan's theorem that the projective special linear group PSL(2, q) is simple for q≠ 2, 3.
The smallest Hurwitz group is the projective special linear group PSL(2,7), of order 168, and the corresponding curve is the Klein quartic curve.
His works are visual representations of mathematical objects;The Eightfold Way is based on the projective special linear group PSL(2,7), a finite group of 168 elements.
Laurent Lafforgue proved Lafforgue's theorem verifying the Langlands conjectures for the general linear group GL(n, K) for function fields K. This work continued earlier investigations by Drinfeld, who proved the case GL2, K.
Langlands generalized the idea of functoriality:instead of using the general linear group GL(n), other connected reductive groups can be used.
The map t↦ e t X, t∈ R{\displaystyle t\mapsto e^{tX},\qquad t\in\mathbb{R}}defines a smooth curve in the general linear group which passes through the identity element at t 0.