Chapter 3: Q10P (page 122)
Given
Show that,.
Short Answer
Find the products AC and AD of the given matrices to prove that AC=AD, but .
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Chapter 3: Q10P (page 122)
Given
Show that,.
Find the products AC and AD of the given matrices to prove that AC=AD, but .
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The Caley-Hamilton theorem states that "A matrix satisfies its own characteristic equation." Verify this theorem for the matrix in equation (11.1). Hint: Substitute the matrixforrole="math" localid="1658822242352" in the characteristic equation (11.4) and verify that you have a correct matrix equation. Further hint: Don't do all the arithmetic. Use (11.36) to write the left side of your equation asand show that the parenthesis. Remember that, by definition, the eigenvalues satisfy the characteristic equation.
In Problemsto show that the given functions are linearly independent.
Find the Eigen values and eigenvectors of the following matrices. Do some problems by hand to be sure you understand what the process means. Then check your results by computer.
Let each of the following matrices represent an active transformation of vectors in ( x , y )plane (axes fixed, vector rotated or reflected). As in Example 3, show that each matrix is orthogonal, find its determinant and find its rotation angle, or find the line of reflection.
Find the equation of the plane through and perpendicular to both planes in Problem 22.
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