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The normal equations are ATAx=ATb. The normal equations can be derived by minimizing 12‖Axb‖2 with respect to x. Setting the gradient equal to 0, we obtain AT(Axb)=0.
Normalizing a matrix is a simple procedure. All we must do is take the determinant of the matrix and divide each element by the determinant of the matrix. This way, we will get a normalized matrix.
Normal form of a matrix is a matrix satisfying following conditions: consist of only ones and zeros. every row has a maximum of single one and rest are all zeros (there can be rows with all zeros). We can produce the normal form of a matrix by doing row operations.
Normal of a matrix is defined as the square root of the sum of squares of all the elements of the matrix. Trace of a given square matrix is defined as the sum of all the elements in the diagonal.
An m n matrix: the m rows are horizontal and the n columns are vertical. Each element of a matrix is often denoted by a variable with two subscripts. For example, a2,1 represents the element at the second row and first column of the matrix.
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A symmetric and a skew-symmetric matrix both are normal matrices. A normal matrix need not be a Hermitian, skew-Hermitian, Unitary or symmetric matrix. An orthogonal matrix is also a normal matrix.
A matrix is normal if and only if either pre-multiplying or post-multiplying it by its conjugate transpose gives the same result. It turns out that a matrix is normal if and only if it is unitarily similar to a diagonal matrix.
A matrix A is said to be a Normal matrix if the pre and post matrix multiplication of conjugate transpose of A with the matrix A is commutative. In other words, normal matrices are those matrices whose matrix multiplication with its own conjugate transpose is commutative.

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