2019
DOI: 10.1080/00927872.2019.1581212
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Derivations of octonion matrix algebras

Abstract: It is well-known that the exceptional Lie algebras f4 and g2 arise from the octonions as the derivation algebras of the 3 × 3 hermitian and 1 × 1 antihermitian matrices, respectively. Inspired by this, we compute the derivation algebras of the spaces of hermitian and antihermitian matrices over an octonion algebra in all dimensions.

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Cited by 2 publications
(2 citation statements)
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“…In fact, the same argument works for O 0 , and we similarly obtain SL m .O 0 / Š SL 8m .R/ for m 3. ural to ask what happens to this construction when n is greater than 3. In this case, it is shown in [9,Theorem 3.3] that the derivation algebra of h m .O/ is g 2˚s o m , but it is not clear how this interacts with the multiplication operators. In particular, when m > 3, the commutator of two such operators may fail to be a derivation.…”
Section: The General Casementioning
confidence: 99%
“…In fact, the same argument works for O 0 , and we similarly obtain SL m .O 0 / Š SL 8m .R/ for m 3. ural to ask what happens to this construction when n is greater than 3. In this case, it is shown in [9,Theorem 3.3] that the derivation algebra of h m .O/ is g 2˚s o m , but it is not clear how this interacts with the multiplication operators. In particular, when m > 3, the commutator of two such operators may fail to be a derivation.…”
Section: The General Casementioning
confidence: 99%
“…C. Maxwell first utilized the algebra of quaternions to describe the physical properties of electromagnetic fields. This method encourages the subsequent scholars to apply the quaternions and octonions [15,16] to explore the electromagnetic fields [17], gravitational fields [18,19], wave functions [20], black holes, dark matter [21], strong nuclear fields [22], weak nuclear fields [23], Gauge field [26], Hall effect, dyons [24,25], hydromechanics [27], quantum computing [28], and plasmas [29] and others.…”
Section: Introductionmentioning
confidence: 95%