Chapter 7: Q7E (page 336)
7:For each of the matrices in Exercises 1 through 13, find all real eigenvalues, with their algebraic multiplicities. Show your work. Do not use technology.
Short Answer
Eigenvalues is: λ=1, almu(1)=3.
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Chapter 7: Q7E (page 336)
7:For each of the matrices in Exercises 1 through 13, find all real eigenvalues, with their algebraic multiplicities. Show your work. Do not use technology.
Eigenvalues is: λ=1, almu(1)=3.
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Arguing geometrically, find all eigenvectors and eigenvalues of the linear transformations in Exercises 15 through 22. In each case, find an eigenbasis if you can, and thus determine whether the given transformation is diagonalizable.
Orthogonal projection onto a line L in .
25: Consider a positive transition matrix
meaning that a, b, c, and dare positive numbers such that a+ c= b+ d= 1. (The matrix in Exercise 24 has this form.) Verify that
and
are eigenvectors of A. What are the associated eigenvalues? Is the absolute value of these eigenvalues more or less than 1?
Sketch a phase portrait.
Is an eigenvector of 7 A? If so, what is the eigenvalue?
If a 2 × 2 matrix A has two distinct eigenvaluesand, show that A is diagonalizable.
For a given eigenvalue, find a basis of the associated eigenspace. Use the geometric multiplicities of the eigenvalues to determine whether a matrix is diagonalizable. For each of the matrices A in Exercises 1 through 20, find all (real) eigenvalues. Then find a basis of each eigenspace, and diagonalize A, if you can. Do not use technology
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