Given three vectors: (a) Show that these three vectors are linearly independent (b) Use the Graham-Schmidt...
#8. Let W be the subspace of R3 spanned by the two linearly independent vectors v1 = (-1,2,2) and v2 = (3, -3,0). (a) Use the Gram-Schmidt orthogonalization process to find an orthonormal basis for W. (b) Use part (a) to find the matrix M of the orthogonal projection P: R W . (c) Given that im(P) = W, what is rank(M)?
Use the Gram-Schmidt process to transform the basis, B = {(1,2), (3, 4)} for R² into (a) an orthogonal basis for R and (b) an orthonormal basis for R using the Euclidean inner product; that is, dot product, and use vectors in the order in which they are given.
3. Consider the following vectors, where k is some real number. H-11 Lol 1-1 a. For what values of k are the vectors linearly independent? b. For what values of k are the vectors linearly dependent? c. What is the angle (in degrees) between u and v? 4. Here are two vectors in R". Let V = the span of {"v1r2} a. Find an orthogonal basis for V (the orthogonal complement of V). b. Find a vector that is neither...
DETAILS LARLINALG8 5.R.040. ASK YOUR TEACHER Apply the Gram-Schmidt orthonormalization process to transform the given basis for R" into an orthonormal basis. Use the Euclidean inner product for R" and use the vectors in the order in which they are given. B = ((0.0, 2), (0, 1, 1), (1, 1, 1)) -
linear algebra
(a) Use Gram-Schmidt, (using the given vectors as labeled) to find an orthonormal basis for the span of 0 0 V3- (b) Use Gram-Schmidt, (using the given vectors as labeled) to find an orthonormal basis for the span of 0 V3-0 v2= (c) What can we conclude from the two examples computed above? Also, did you find one computation "easier than the other? If so, what do you think made it easier?
4) Consider the inner product space P2(R), with inner product (a) Use the Gram-Schmidt process to construct an orthonormal basis from the basis (b) Using your answer to part (a), give the least squares approximation in P2(R) to the function f(x)on the interval [0, 1. Hint: You may use the following result without proof f Ine* dr = (-1)"(ane-n!), where ao = 1, an- | n. + | , for n-1, 2, ).
4) Consider the inner product space P2(R),...
When dealing with standard vectors (with purely real elements) we are used to finding the angle between the vector from But what happens when we are dealing with vectors that have complex elements. In quantum mechanics, in general, the inner product is a complex number, which does not define a real angle The Schwarz Inequality helps us in this regard However, according to it, the only thing we can know is that the absolute value of the inner product is...
7) Use the definition to show that the following vectors are linearly independent or dependent? 11 Го 1and 0-1
(4) Consider the inner product space P2(R), with inner product (a) Use the Gram-Schmidt process to construct an orthonormal basis from the basis 11, r, r2) b) Using your answer to part (a), give the least squares approximation in P2(R) to the function f(x) e on the interval [0, Hint: You may use the following result without proof: J İlne dra(-1)"(ane-n!), where ao-1, an-le! + îl , for n-1, 2, or n=1,2 .. ).
(4) Consider the inner product space...
Determine whether the members of the given set of vectors are linearly independent. Show all work. If they are linearly dependent, find a linear relation among them. a) --0----0 --0 b) 2 *(1) = 0-0 =