Chapter 7: Q7.4-21E (page 355)
For the matrices A in Exercise 20 through 24, find . Fell free to use Theorem 7.4.1.
21.
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Chapter 7: Q7.4-21E (page 355)
For the matrices A in Exercise 20 through 24, find . Fell free to use Theorem 7.4.1.
21.
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If a 2 × 2 matrix A has two distinct eigenvaluesand, show that A is diagonalizable.
Consider the coyotes–roadrunner system discussed in Example 7. Find closed formulas for c(t) and r(t), for the initial populations = 100, = 800.
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.
In all parts of this problem, let V be the linear space of all 2 × 2 matrices for which is an eigenvector.
(a) Find a basis of V and thus determine the dimension of V.
(b) Consider the linear transformation T (A) = A from V to . Find a basis of the image of Tand a basis of the kernel of T. Determine the rank of T .
(c) Consider the linear transformation L(A) = A from V to . Find a basis of the image of L and a basis of the kernel of L. Determine the rank of L.
Give an example of a matrix A without real eigenvalues.
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