The goal of this problem is to see the reasoning for the term “diagonalizable," and the two seemingly different common definitions. Let 6 1 0 16 0 0 M 00 8 1 0 0 -5 2 (a) Find the characteristic polynomial of M. (b) Find all eigenvalues of M. (c) Find the algebraic and geometric multiplicities of each eigenvalue. (d) M is diagonalizable. Find an ordered eigenbasis, B, for M. (e) Let TR4 → R4 be given by T(x) = Mã. For each vector ʊ in the eigenbasis B from (d), find [T()]. (Notice you can do this without doing any matrix algebra, since if v is an eigenvector of M with eigenvalue λ, then T(√) = λʊ) (f) Use your work from (e) to find a matrix A so that [T(x)] = A[x]. (g) Let be the standard basis for R4, find P→ and Pe→. (h) Find a matrix A so that 23 [T()] = A[7] B by using the change of basis matrices from (g) and M.
The goal of this problem is to see the reasoning for the term “diagonalizable," and the two seemingly different common definitions. Let 6 1 0 16 0 0 M 00 8 1 0 0 -5 2 (a) Find the characteristic polynomial of M. (b) Find all eigenvalues of M. (c) Find the algebraic and geometric multiplicities of each eigenvalue. (d) M is diagonalizable. Find an ordered eigenbasis, B, for M. (e) Let TR4 → R4 be given by T(x) = Mã. For each vector ʊ in the eigenbasis B from (d), find [T()]. (Notice you can do this without doing any matrix algebra, since if v is an eigenvector of M with eigenvalue λ, then T(√) = λʊ) (f) Use your work from (e) to find a matrix A so that [T(x)] = A[x]. (g) Let be the standard basis for R4, find P→ and Pe→. (h) Find a matrix A so that 23 [T()] = A[7] B by using the change of basis matrices from (g) and M.
Advanced Engineering Mathematics
10th Edition
ISBN:9780470458365
Author:Erwin Kreyszig
Publisher:Erwin Kreyszig
Chapter2: Second-order Linear Odes
Section: Chapter Questions
Problem 1RQ
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Please help with parts a,b,c with solution and steps!
![The goal of this problem is to see the reasoning for the term “diagonalizable," and the two
seemingly different common definitions. Let
6 1 0
16
0
0
M
00 8 1
0 0
-5 2
(a) Find the characteristic polynomial of M.
(b) Find all eigenvalues of M.
(c) Find the algebraic and geometric multiplicities of each eigenvalue.
(d) M is diagonalizable. Find an ordered eigenbasis, B, for M.
(e) Let TR4 → R4 be given by T(x) = Mã. For each vector ʊ in the eigenbasis B from
(d), find [T()]. (Notice you can do this without doing any matrix algebra, since if v is
an eigenvector of M with eigenvalue λ, then T(√) = λʊ)
(f) Use your work from (e) to find a matrix A so that
[T(x)] = A[x].
(g) Let be the standard basis for R4, find P→ and Pe→.
(h) Find a matrix A so that
23
[T()] = A[7] B
by using the change of basis matrices from (g) and M.](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F781395ef-5933-4a4d-9640-3099b49e30d5%2Fe16e7551-af9f-4fa5-a592-9e579b4b8bfe%2F1bg2gsl_processed.png&w=3840&q=75)
Transcribed Image Text:The goal of this problem is to see the reasoning for the term “diagonalizable," and the two
seemingly different common definitions. Let
6 1 0
16
0
0
M
00 8 1
0 0
-5 2
(a) Find the characteristic polynomial of M.
(b) Find all eigenvalues of M.
(c) Find the algebraic and geometric multiplicities of each eigenvalue.
(d) M is diagonalizable. Find an ordered eigenbasis, B, for M.
(e) Let TR4 → R4 be given by T(x) = Mã. For each vector ʊ in the eigenbasis B from
(d), find [T()]. (Notice you can do this without doing any matrix algebra, since if v is
an eigenvector of M with eigenvalue λ, then T(√) = λʊ)
(f) Use your work from (e) to find a matrix A so that
[T(x)] = A[x].
(g) Let be the standard basis for R4, find P→ and Pe→.
(h) Find a matrix A so that
23
[T()] = A[7] B
by using the change of basis matrices from (g) and M.
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