Section 5.4 Inner Product Spaces: Problem 6 Previous Problem Problem List Next Problem (1 point) Use...
Section 5.5 Orthonormal Sets: Problem 6 Previous Problem Problem List Next Problem 1 (1 point) Use the inner product < f, g >= . f(x)g(x)dx in the vector space C°[0, 1] to find the orthogonal projection of f(x) = 6x2 + 1 onto the subspace V spanned by g(x) = x - and h(x) = 1. projy(f) =
Section 5.4 Inner Product Spaces: Problem 4 Section 5.4 Inner Product Spaces: Problem 4 Next Problem Previous Problem Problem List -4 2 4 and B 2 (1 point) Given A 4 -4 5 determine the value of each of the following: (A, B) ||A|| P |B||F radians Section 5.4 Inner Product Spaces: Problem 4 Next Problem Previous Problem Problem List -4 2 4 and B 2 (1 point) Given A 4 -4 5 determine the value of each of the...
(1 point) Use the inner product <p.q >= P(-3)(-3) + p(0)q(0) + p(2)q(2) in Pg to find the orthogonal projection of p(x) = 2x2 + 6x + 4 onto the line L spanned by 9(x) = 3x2 - 4x - 6. proj. (p) =
Please write/type clearly. (1 point) Use the inner product < p, 2 >= P(-2)(-2) + p(0)q(0) + p(3)q(3) in P3 to find the orthogonal projection of p(x) = 3x2 + 6x – 8 onto the line L spanned by q(x) = = 2x2 – 3x – 9. projų (p) =
Section 5.5 Orthonormal Sets: Problem 4 Previous Problem Problem List Next Problem (1 point) Find the orthogonal projection of 11 -14 V= 9 14 onto the subspace V of R4 spanned by 5 0 2 -1 X1 = and x2 = -1 -2 4 0 projy(v) =
Ch6 Inner-product and Orthogonality: Problem 14 Previous Problem Problem List Next Problem (1 point) All vectors are in R". Check the true statements below: A. Not every linearly independent set in R" is an orthogonal set B. If the vectors in an orthogonal set of nonzero vectors are normalized, then some of the new vectors may not be orthogonal. C. A matrix with orthonormal columns is an orthogonal matrix. D. If L is a line through 0 and itỷ is...
please provide step by step solution Thank you (1 point) Use the inner product (5,8) = $* f()g(x) dx in the vector space P(R) of polynomials to find the orthogonal projection of f(x) = 2x2 + 4 onto the subspace V spanned by g(x) = x and h(x) = 1. (Caution: x and 1 do not form an orthogonal basis of V.) projy(f) =
(1 point) Use the inner product 1 0 <fig >= f(x)g(x)dx in the vector space Cº[0, 1] to find the orthogonal projection of f(x) = 6x2 + 1 onto the subspace V spanned by g(x) = x – į and h(x) = 1. projy(f) =
Score: 0 of 2 pts 4 of 6 (4 complete) HW Score: 20%, 4 of 20 pts 6.7.7 Question Help This exercise refers to P, with the inner product given by evaluation at - 1,0, and 1. Compute the orthogonal projection of q onto the subspace spanned by p, for p(t) = 6 +t and g(t) = 6 -5t2 The orthogonal projection of q onto the subspace spanned by p is
Let Ps have the inner product given by evaluation at -2, -1, 1, and 2. Let po(t)-1. P,()-t, and p20)- a. Compute the orthogonal projection of p2 onto the subspace spanned by Po and P1 b. Find a polynomial q that is orthogonal to Po and p,, such that Po P is an orthogonal basis for Span(Po P1, P2). Scale the polynomial q so that its vector of values at a2(Simplify your answer.) Let Ps have the inner product given...