1951
DOI: 10.2140/pjm.1951.1.329
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Matrices of quaternions

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Cited by 135 publications
(115 citation statements)
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“…We review some basic linear algebra in SL(2, H) which can be found in [2,3,9,12,14], and relate the quantities α, β, γ, δ, σ and τ to eigenvalues of quaternionic matrices. We denote the real part of a quaternion z by Re A quaternion t is a right eigenvalue of a matrix A in SL(2, H) if and only if there is a non-zero column vector v ∈ H 2 such that Av = vt. For u = 0, let w = vu −1 .…”
Section: Background Materials On Quaternionic Matricesmentioning
confidence: 99%
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“…We review some basic linear algebra in SL(2, H) which can be found in [2,3,9,12,14], and relate the quantities α, β, γ, δ, σ and τ to eigenvalues of quaternionic matrices. We denote the real part of a quaternion z by Re A quaternion t is a right eigenvalue of a matrix A in SL(2, H) if and only if there is a non-zero column vector v ∈ H 2 such that Av = vt. For u = 0, let w = vu −1 .…”
Section: Background Materials On Quaternionic Matricesmentioning
confidence: 99%
“…For B ∈ SL(2, H), we see from the equation BAB −1 (Bv) = Bvt that conjugate matrices have the same right eigenvalues. According to [2,Theorem 2], each quaternionic matrix is conjugate to an upper triangular matrix. This statement is equivalent to the well known fact that each (quaternionic) Möbius transformation is conjugate to a Möbius transformation that fixes ∞.…”
Section: Background Materials On Quaternionic Matricesmentioning
confidence: 99%
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“…The question whether standard matrices have eigenvalues does not come up, since it is known, that these matrices have always eigenvalues and the number of eigenvalues never exceeds the order n. See Horn and Johnson [7] for matrices over R, C, and Brenner [1], and Zhang [19] for matrices over H. For matrices over A the term number of eigenvalues will be made more precise a little later.…”
Section: Janovská and G Opfermentioning
confidence: 99%