Let V be an inner product space and u, w be fixed vectors in V . Show that T v = <v, u>w defines a linear operator in V . Show that T has an adjoint, and describe T ∗ explicitly
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Let V be an inner product space and u, w be fixed vectors in V . Show that T v = <v, u>w defines a linear operator...
Let v and w be vectors in an inner product space V. Show that v is orthogonal to w if and only if ||v + w|| = ||v – w||.
4. Let TV - V be a linear operator on a finite dimensional inner product space V and P be the orthogonal projection of V onto the subspace W of V. a) Show that is invariant under T if and only if PTP = TP. b) Show that w and we are both invariant under 7 If and only if PT = TP
Q6 5 Points Let (V, (,)) be an inner product space and T :V + V and S: V + V be self adjoint linear transformations. Show that To S:V + V is self adjoint if and only if S T =To S.
4. From Axler's book: EXERCISE 4 of SECTION 9B. Suppose V is a real inner product space and T E C(V) is self-adjoint. Show that Tc is a self-adjoint operator on the inner product space Vc defined by the previous exercise. 4 4. From Axler's book: EXERCISE 4 of SECTION 9B. Suppose V is a real inner product space and T E C(V) is self-adjoint. Show that Tc is a self-adjoint operator on the inner product space Vc defined by...
Suppose that a linear operator T on a complex vector space with an inner product, has minimal polynomial 2 + (1 + i)z + 7i. Find the minimal polynomial of the adjoint operator T*. Justify your answer.
Let (V, (,) be an inner product space and T:V → V and S:V + V be self adjoint linear transformations. Show that TOS:V + V is self adjoint if and only if SoT=TOS.
3. Let V be a finite dimensional inner product space, and suppose that T is a linear operator on this space. (i) Let B be an ordered orthonormal basis for V and let U be the linear operator on V determined by [U19 = (T);. Then, for all 01,09 € V, (01, T(02)) = (U(V1), v2) (ii) Prove that the conclusion of the previous part does not hold, in general, if the basis 8 is not orthonormal.
Q6 5 Points Let (V, (,) be an inner product space and T: VV and S: VV be self adjoint linear transformations. Show that TOS: VV is self adjoint if and only if SoT=TOS. Please select file(s) Select file(s) Save Answer
Let V be R, with thestandard inner product. If is a unitary operator on V, show that the matrix of U in the standard ordered basis is either cos θ -sin θ sin θ cos θ cos θ sin θ for some real θ, 0-θ < 2T. Let Us be the linear operator corresponding to the first matrix, i.e., Ue is rotation through the angle . Now convince yourself that every unitary operator on V is either a rotation, or...
(5) Prove or give a countcrcxample: If A, B E Cnx"are sclf-adjoint, then AB is also self-adjoint. (6) Let V be a finitc-dimensional inner product space over C, and suppose that T E C(V) has the property that T*--T (such a map is called a skew Hermitian operator (a) Show that the operator iT E (V) is self-adjoint (i.c. Hermitian) (b) Prove that T has purely imaginary eigenvalues (i.e. λ ίμ for μ E R). (c) Prove that T has...