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Lie-Kolchin Theorem

Algebra

The Lie-Kolchin Theorem is a result in the representation theory of linear algebraic groups, named for Sophus Lie and Ellis Kolchin. It states that a connected and solvable linear algebraic group acting on a nonzero finite-dimensional vector space over an algebraically closed field has a common eigenvector for all its elements, so the group can be represented, in a suitable basis, entirely by upper triangular matrices. The theorem is the algebraic-group analogue of Lie's theorem for linear Lie algebras, which gives the corresponding statement for solvable Lie algebras of matrices.

Facts
Statement
If G is a connected and solvable linear algebraic group defined over an algebraically closed field and rho is a representation of G on a nonzero finite-dimensional vector space V, then there exists a one-dimensional linear subspace L of V such that rho(G) maps L to itself. 1
Proof Year
1948 1
Classification
Statement Form
Existence Theorem 1
Connections

Has Statement Form

In Branch

Source Lie-Kolchin theorem, Wikipedia

Principal Result Of

Source Lie-Kolchin theorem, Wikipedia

Proved By

Source Lie-Kolchin theorem, Wikipedia
Sources
1. Lie-Kolchin theorem, Wikipedia
  • Lead section
    The result for Lie algebras was proved by Sophus Lie (1876) and for algebraic groups was proved by Ellis Kolchin (1948, p.19).
  • History section
    The result for Lie algebras was proved by Sophus Lie (1876) and for algebraic groups was proved by Ellis Kolchin (1948, p.19).
  • Principal Result Of: Sophus Lie, Lead sentence of the article on the result
    The result for Lie algebras was proved by Sophus Lie (1876) and for algebraic groups was proved by Ellis Kolchin (1948, p.19).
  • In Branch: Representation Theory, Lead sentence
  • Proved By: Sophus Lie, Lead paragraph
    In mathematics, the Lie-Kolchin theorem is a theorem in the representation theory of linear algebraic groups; Lie's theorem is the analog for linear
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