Chapter 3: Q6P (page 136)
As in Problem ,write in terms of the basis vectorsand.
Short Answer
The vector in terms of basis vectors is .
Chapter 3: Q6P (page 136)
As in Problem ,write in terms of the basis vectorsand.
The vector in terms of basis vectors is .
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Get started for freeShow that the definition of a Hermitian matrix can be writtenrole="math" localid="1658814044380" (that is, the diagonal elements are real and the other elements have the property that, etc.). Construct an example of a Hermitian matrix.
Let each of the following matrices Mdescribe a deformation of the plane For each given M find: the Eigen values and eigenvectors of the transformation, the matrix Cwhich DiagonalizesM and specifies the rotation to new axesalong the eigenvectors, and the matrix D which gives the deformation relative to the new axes. Describe the deformation relative to the new axes.
Show that the following matrices are Hermitian whether Ais Hermitian or not: .
Find the symmetric equations and the parametric equations of a line, and/or the equation of the plane satisfying the following given conditions.
Line through and parallel to .
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.
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