Chapter 7: Q43E (page 325)
Consider the linear space of allmatrices for which all the vectorsare eigenvectors. Describe the space(the matrices in"have a name"), and determine the dimension of.
Short Answer
Hence, the required dimension is n .
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Chapter 7: Q43E (page 325)
Consider the linear space of allmatrices for which all the vectorsare eigenvectors. Describe the space(the matrices in"have a name"), and determine the dimension of.
Hence, the required dimension is n .
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If is an eigenvector of matrix A with associated eigenvalue 3 , show that is an image of matrix A .
For a given eigenvalue, find a basis of the associated eigensspace .use the geometric multiplicities of the eigenvalues to determine whether a matrix is diagonalizable.
For each of the matrices A in Exercise1 through 20,find all (real) eigenvalues. Then find a basis of each eigenspaces ,and diagonalize A, if you can. Do not use technology.
if A is a matrix with t r A = 5and det A = - 14what are the eigenvalues of A?
27: a. Based on your answers in Exercises 24 and 25, find closed formulas for the components of the dynamical system
with initial value . Then do the same for the initial value . Sketch the two trajectories.
b. Consider the matrix
.
Using technology, compute some powers of the matrix A, say, A2, A5, A10, . . . .What do you observe? Diagonalize matrix Ato prove your conjecture. (Do not use Theorem 2.3.11, which we have not proven
yet.)
c. If
is an arbitrary positive transition matrix, what can you say about the powers Atas t goes to infinity? Your result proves Theorem 2.3.11c for the special case of a positive transition matrix of size 2 × 2.
find an eigenbasis for the given matrice and diagonalize:
Representing the reflection about the plane.
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