Being F the subset of of the hemi-symmetric matrices ( such as ).
i) Show that F is a subspace of .
ii) Determine the dimension of F.
iii) Determine the base of F.
iv) Being the application that corresponds to each matrix of F the vector of .
Determine the matrix that represents T regarding the base of the previous question (iii) and the canonical base of .
v) Determine if T is injective.
vi) Determine if T is surjective.
vii) Verify that T satisfies the Dimension theorem , such as
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Being F the subset of of the hemi-symmetric matrices ( such as ). i) Show that...
We say that an nxn matrix is skew-symmetric if A^T=-A. Let W be the set of all 2x2 skew-symmetric matrices: W = {A in m2x2(R) l A^T=-A}. (a) Show that W is a subspace of M2x2(R) (b) Find a basis for W and determine dim(W). (c) Suppose T: M2x2(R) is a linear transformation given by T(A)=A^T +A. Is T injective? Is T surjective? Why or why not? You do not need to verify that T is linear. 3. (17 points)...
Consider the map defined A) Compute B) Verify that F is a linear transformation. C) Is F one-to-one (injective)? Justify your answer. D) Is F onto (surjective)? Justify your answer. E) Describe the kernel (null space) of F. F) Describe the image (what the book calls the range) of F. G) Find one solution to the equation H) Find all solutions to the equation G:P2 → P3 G(p(t) = P(dx F(t + + 5) We were unable to transcribe this...
If C is a subspace of , prove that . (C is a binary linear code with length n and dimension k, is the dual code of C) F dim(C) dim(C)= n We were unable to transcribe this image
Let be an arbitrary function and A X. i) Show that A ii) Give an example to show that in general A = . iii) Show that, if is injective, then A = iv) Show that, if X and Y are modules; is a homomorphism of modules and A is a submodule of X such that ker, then we also have A = We were unable to transcribe this imageWe were unable to transcribe this imageWe were unable to transcribe...
Please argument all your answers and explain why of your arguments so i can understand better and do not use advanced things im just taking linear algebra course. Let V be a vector space of finite dimension over a field K. T a linear operator over V and a eigenvector of T associated to the eigenvalue . If , show that . Being A any matrix associated to T in some basis of V. We were unable to transcribe this...
a) By direct substitution determine which of the following functions satisfy the wave equation. 1. g(x, t) = Acos(kx − t) where A, k, are positive constants. 2. h(x, t) = Ae where A, k, are positive constants. 3. p(x, t) = Asinh(kx − t) where A, k, are positive constants. 4. q(x, t) = Ae where A, a, are positive constants. 5. An arbitrary function: f(x, t) = f(kx−t) where k and are positive constants. (Hint: Be careful with...
satisfies the integral equation: Find the solution of the integral equation using Fourier transforms. Your answer should be expressed as a function of t using the correct syntax. f(t) = We were unable to transcribe this image(t-ue (t-ue
Find the line integral of F = (3x^2-7x) i +7z j + k from (0,0,0) to (1,1,1) over each of the following paths in the accompanying figure. a. C1: r(t) = t i + t j + t k, b: C2: r(t) = t i +t^2 j + t^4 k, c: C3C4: the path consisting of the line segment from (0,0,0) to (1,1,0) followed by the segment from (1,1,0) to (1,1,1) We were unable to transcribe this imageWe were unable...
satisfies the integral equation: Find the solution of the integral equation using Fourier transforms. Your answer should be expressed as a function of t using the correct syntax. f(t) = We were unable to transcribe this image1510 1510
Part 1: For each of the following structures, indicate the integration expected for the signal associated with the indicated hydrogen(s). a) i) ii) iii) iv) b) i) ii) iii) c) i) ii) iii) d) i) ii) iii) iv) v) vi) e) i) ii) iii) iv) f) i) ii) iii) iv) v) vi) Part 2: For each of the following structures, indicate the coupling (a.k.a, splitting) pattern expected for the signal associated with the indicated hydrogen(s) by placing the appropriate letter(s)...