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On Reductive Lie Admissible Algebras

Published online by Cambridge University Press:  20 November 2018

Arthur A. Sagle*
Affiliation:
University of Minnesota, Minneapolis, Minnesota
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A Lie admissible algebra is a non-associative algebra A such that A is a Lie algebra where A denotes the anti-commutative algebra with vector space A and with commutation [X, Y] = XYYX as multiplication; see [1; 2; 5]. Next let L(X): AA: Y → [X, Y] and H = {L(X): XA}; then, since A is a Lie algebra, we see that H is contained in the derivation algebra of A and consequently the direct sum g = A H can be naturally made into a Lie algebra with multiplication [PQ] given by: P = X + L(U), Q = Y + L(V) ∊ g, then

and note that for any P, [PP] = 0 so that [PQ] = −[QP] and the Jacobi identity for g follows from the fact that A is Lie.

Type
Research Article
Copyright
Copyright © Canadian Mathematical Society 1971

References

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