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matrix - People(dot)tuke(dot)sk
matrix - People(dot)tuke(dot)sk

... The co-factor is equal to (1)i+jdet(Aij) where det(Aij) is the determinant of the (n1)  (n1) square matrix which arises from A by omission the i-th row and the jth column. det(Aij)is called the minor, which is the abbreviation for “minor determinant”. The sum ai1Ai1 + ai2Ai2 + ai3Ai3 + … + a ...
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Online Appendix A: Introduction to Matrix Computations

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Principles of Scientific Computing Linear Algebra II, Algorithms

... The right side requires n multiplies and about n adds for each j and k. That makes n × n2 = n3 multiplies and adds in total. The formulas (3) have (almost) exactly 2n3 flops in this sense. More generally, suppose A is n × m and B is m × p. Then AB is n × p, and it takes (approximately) m flops to ca ...
Appendix 4.2: Hermitian Matrices r r r r r r r r r r r r r r r r r r
Appendix 4.2: Hermitian Matrices r r r r r r r r r r r r r r r r r r

... matrix must necessarily be diagonal. Hence D ≡ U*BU is diagonal with eigenvalues on its diagonal. From BU = DU, it is clear that the columns of U are the eigenvectors of B.♥ According to Theorem 4.2-1, matrix D has only real-valued eigenvalues. According to Theorem 4.2-2, matrix D looks like ...
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... Transform, and polynomial and rational multipoint evaluation and interpolation can be seen as superfast multiplication of a vector by structured matrices (e.g., Toeplitz, DFT, Vandermonde, Cauchy). In this paper, we study a general class of structured matrices, which we suggest to call confluent Cau ...
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Linear Algebra Review and Reference

... with matrix multiplications of some kind, and it is worthwhile to spend some time trying to develop an intuitive understanding of the viewpoints presented here. In addition to this, it is useful to know a few basic properties of matrix multiplication at a higher level: • Matrix multiplication is ass ...
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... since GLn (R)+ /(GLn−1 (R)+ ×Rn−1 ) and (GLn−1 (R)+ ×Rn−1 ) are connected so is GLn (R)+ . This exact same argument may be applied to show that On (R)+ , SLn (R), SOn (R) are connected and hence have one connected component. It remains to establish that the components with negative determinant of GL ...
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... although this is not obvious. One can define a bilinear form on C2n by the same formula (1.3). (This form involves no complex conjugates.) The set of 2n × 2n complex matrices which preserve this form is the complex symplectic group Sp(n; C). A 2n × 2n complex matrix A is in Sp(n; C) if and only if At ...
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... when m and n are understood from context. Remark. The order of the subscripts is important; the first subscript denotes the row and the second subscript the column to which an entry belongs. Just as with vectors in That is: ...
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Capelli's identity

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