Recent content by njuclean

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    Diagonalize a non-hermitian matrix

    I'm glad to see your reply again. The eigenvalues of the two dimensional matrix (a11=i, a12=0, a21=0, a22=-i) are \lambda1=i and \lambda2=-i. For \lambda1, R1=(1 0)T and L1=(1 0). For \lambda2, R2=(0 1)T and L2=(0 1). Thus \sumRjLj=R1L1+R2L2=I. I think it's necessary for me to read some...
  2. N

    Diagonalize a non-hermitian matrix

    Thanks for your reply. Are the right vectors of a non-hermitian matrix in general not the orthogonal and complete bases? I'm lack of the knowledge of linear algebra, so my question maybe too simple.
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    Diagonalize a non-hermitian matrix

    I'm learning "the transformation optics" and the first document about this method is "Photonic band structures" ( Pendry, J. B. 1993). In this document, the transfer matrix T is non-hermitian, Ri and Li are the right and left eigenvectors respectively. Pendry defined a unitary matrix...
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