4. a) b) i) i., iii, combinations of I and H. i) (- Let H = 5 7 Find the characteristic polynomial of H. 'Is H diagonalisable? Explain your answer. Use the Cayley-Hamilton theorem to write H-¹ and H³ as linear Show that the matrix A=(12) has only one eigenvalue and that is the corresponding eigenvector. ii)] Solve the system of differential equations U r' (t)=-4y+ 3et y' (t)=9r+12y-4e6t; V = with initial conditions r(0) = 2, y(0) = -3. Let F = FX-XF. You may assume without proof that the map f is linear. i) [ -- Prove that ƒ²(X) = −2FXF, i.e., prove that ƒ(ƒ(X)) = −2F XF. ….. Prove that ƒ³ (X) = 0, for any X € M₂,2(R), i.e., prove that ƒ (ƒ(ƒ(X))) = 0, for any X € M2,2(R). Let E11 C · († 8). Define the map f: M22(R) → M2,2(R) by f(X) = = (9). E₁2 - ( ). En - (1₂9). En-( 1). = be the standard basis in M₂,2 (R). A) Find f(E11), f(E12), f(E21), f(E22). B) Find the matrix, M, of the map f with respect to the standard basis in the domain and in the co-domain. C) Without computing, explain why M² #0 and M³ = 0. D) Let J be the Jordan Normal form of the matrix M, i.e., M~ J. Explain why 0

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Chapter4: Eigenvalues And Eigenvectors
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Part C(III) needed Needed to be solved Part C(III) Correctly in 15 minutes and get the thumbs up please show neat and clean work for it
4. a)
i)
i.,
iii,
L
-9
Let H = (-
= (-3--²³)
5
combinations of I and H.
V=
Find the characteristic polynomial of H.
Is H diagonalisable? Explain your answer.
Use the Cayley-Hamilton theorem to write H-1 and H³ as linear
b)
i) [---] Show that the matrix A = (12) has only one eigenvalue and that
is the corresponding eigenvector.
ii)] Solve the system of differential equations
with initial conditions (0) = 2, y(0) = -3.
r' (t)=-4y+ 3et
y' (t) = 9x + 12y-4e6t;
U
PRO
Let F =
FX-XF. You may assume without proof that the map f is linear.
i) [
-- Prove that f²(X) = -2FXF, i.e., prove that f(f(x)) = −2FXF.
Prove that ƒ³ (X) = 0, for any X € M2,2(R), i.e., prove that f(f(f(x))) =
0, for any Xe M2,2 (R).
Let
- (8) Define the map f: M2,2(R) → M2,2(R) by f(X) =
be the standard basis in M2,2 (R).
A) Find
1
=
E11
- (₁₂9). ₂- (₂2). ₂ - (2), E₂-(2).
E12 =
E21 =
f(E1), f(E12), f(E21), f(E22).
B) Find the matrix, M, of the map f with respect to the standard basis in the
domain and in the co-domain.
C) Without computing, explain why M² #0 and M³ = 0.
D)
Let J be the Jordan Normal form of the matrix M, i.e., MJ. Explain why 0
is the only eigenvalue of the matrix J (and of M).
E)
Find the Jordan normal form of the matrix M.
Transcribed Image Text:4. a) i) i., iii, L -9 Let H = (- = (-3--²³) 5 combinations of I and H. V= Find the characteristic polynomial of H. Is H diagonalisable? Explain your answer. Use the Cayley-Hamilton theorem to write H-1 and H³ as linear b) i) [---] Show that the matrix A = (12) has only one eigenvalue and that is the corresponding eigenvector. ii)] Solve the system of differential equations with initial conditions (0) = 2, y(0) = -3. r' (t)=-4y+ 3et y' (t) = 9x + 12y-4e6t; U PRO Let F = FX-XF. You may assume without proof that the map f is linear. i) [ -- Prove that f²(X) = -2FXF, i.e., prove that f(f(x)) = −2FXF. Prove that ƒ³ (X) = 0, for any X € M2,2(R), i.e., prove that f(f(f(x))) = 0, for any Xe M2,2 (R). Let - (8) Define the map f: M2,2(R) → M2,2(R) by f(X) = be the standard basis in M2,2 (R). A) Find 1 = E11 - (₁₂9). ₂- (₂2). ₂ - (2), E₂-(2). E12 = E21 = f(E1), f(E12), f(E21), f(E22). B) Find the matrix, M, of the map f with respect to the standard basis in the domain and in the co-domain. C) Without computing, explain why M² #0 and M³ = 0. D) Let J be the Jordan Normal form of the matrix M, i.e., MJ. Explain why 0 is the only eigenvalue of the matrix J (and of M). E) Find the Jordan normal form of the matrix M.
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