Difference between revisions of "031 Review Part 3, Problem 2"
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0 & 0 & 2 | 0 & 0 & 2 | ||
\end{bmatrix}.</math> | \end{bmatrix}.</math> | ||
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\end{bmatrix}.</math> | \end{bmatrix}.</math> | ||
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| − | [[031_Review_Part_3|'''<u>Return to | + | [[031_Review_Part_3|'''<u>Return to Review Problems</u>''']] |
Latest revision as of 13:53, 15 October 2017
Find the eigenvalues and eigenvectors of the matrix
| Foundations: |
|---|
| An eigenvector of a matrix is a nonzero vector such that for some scalar |
| In this case, we say that is an eigenvalue of |
Solution:
| Step 1: |
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| Since is a triangular matrix, the eigenvalues of are the entries on the diagonal. |
| So, the eigenvalues of are and |
| Step 2: |
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| Since the matrix is triangular and all the eigenvalues are distinct, the eigenvectors of are |
|
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| where each eigenvector has eigenvalue and respectively. |
| Final Answer: |
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| The eigenvalues of are and and the corresponding eigenvectors are |
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