Input interpretation
![cobalt(III) ions | formal charges](../image_source/5428cc4110e4d7930b370f53f3701450.png)
cobalt(III) ions | formal charges
Result
![(3)](../image_source/e3facdb0f043493c57ed3afdc031ae9f.png)
(3)
Table
![3](../image_source/7624e9c29bf070f76cb3e555d1babe7c.png)
3
Characteristic polynomial
![3 - λ](../image_source/5de419c0af6c9a97ea20b909d9e4d6d7.png)
3 - λ
Possible intermediate steps
![Find the characteristic polynomial of the matrix M with respect to the variable λ: M = (3) To find the characteristic polynomial of a matrix, subtract a variable multiplied by the identity matrix and take the determinant: left bracketing bar M - λ I right bracketing bar left bracketing bar M - λ I right bracketing bar | = | left bracketing bar 3 - λ 1 right bracketing bar | = | left bracketing bar 3 - λ right bracketing bar invisible comma = left bracketing bar 3 - λ right bracketing bar The determinant of a diagonal matrix is the product of its diagonal elements: left bracketing bar 3 - λ right bracketing bar 3 - λ = 3 - λ: Answer: | | 3 - λ](../image_source/6b55d8a6282129ffa0516c3f2b6d29a4.png)
Find the characteristic polynomial of the matrix M with respect to the variable λ: M = (3) To find the characteristic polynomial of a matrix, subtract a variable multiplied by the identity matrix and take the determinant: left bracketing bar M - λ I right bracketing bar left bracketing bar M - λ I right bracketing bar | = | left bracketing bar 3 - λ 1 right bracketing bar | = | left bracketing bar 3 - λ right bracketing bar invisible comma = left bracketing bar 3 - λ right bracketing bar The determinant of a diagonal matrix is the product of its diagonal elements: left bracketing bar 3 - λ right bracketing bar 3 - λ = 3 - λ: Answer: | | 3 - λ
Eigenvalues
![λ_1 = 3](../image_source/c79f2120ad7dcd6d0001ae12dc7dedbb.png)
λ_1 = 3
Possible intermediate steps
![Find all the eigenvalues of the matrix M: M = (3) Find λ element C such that M v = λ v for some nonzero vector v: M v = λ v The only value of λ for which M v = λ v for any nonzero v is 3: Answer: | | 3](../image_source/c7179794f63c559dcc6dfe6f94667472.png)
Find all the eigenvalues of the matrix M: M = (3) Find λ element C such that M v = λ v for some nonzero vector v: M v = λ v The only value of λ for which M v = λ v for any nonzero v is 3: Answer: | | 3
Eigenvectors
![v_1 = (1)](../image_source/ef8fdb9ce91cd6ce1ef217e9a0b56220.png)
v_1 = (1)
Possible intermediate steps
![Find all the eigenvalues and eigenvectors of the matrix M: M = (3) Find λ element C such that M v = λ v for some nonzero vector v: M v = λ v The only value of λ for which M v = λ v for any nonzero v is 3: 3 The equation M v = λ v is satisfied by each v element C^1, which means a suitable eigenvalue/eigenvector pair is: Answer: | | Eigenvalue | Eigenvector 3 | (1)](../image_source/e10012de4ae6ef8a3bbf3c58ea9b49ac.png)
Find all the eigenvalues and eigenvectors of the matrix M: M = (3) Find λ element C such that M v = λ v for some nonzero vector v: M v = λ v The only value of λ for which M v = λ v for any nonzero v is 3: 3 The equation M v = λ v is satisfied by each v element C^1, which means a suitable eigenvalue/eigenvector pair is: Answer: | | Eigenvalue | Eigenvector 3 | (1)