parts a ) - d). For d) can you just compute the matrix F? I can prove that they're orthogonal. Please. I need help. Problem 5. Let H be the plane x + y + z = 0, let î be a unit normal vector to H, and let L be the linethrough the origin which is perpendicular to H. Define two 3 x 3 matrices, as follows:P = înTI A →), and Q = I3 – Pa. If i is an arbitrary 3D vector, show that Pã is parallel to L, Qã is parallel to H,andT = Pi + Qã.b. Let F be the matrix which reflects vectors orthogonally across H. Draw the vectors Pi, Qĩ, andFa in the following diagram:Hc. Give constants a and b such that the matrixF = aP+ bQreflects vectors across H.d. Compute the matrix F, and verify that it is an orthogonal matrix.e. Find the matrix of F with respect to the basis B from problem 4.(Hint: no computation is required, just draw the basis vectors and their transforms in your diagram.)Note: You may find it enlightening to verify that part a works for any plane through the origin, not just H.Therefore, this method can be used to compute any 3-dimensional reflection matrix.

given a plane H defined as x+y+z=0 this can be written as x,y,z·1,1,1=0 ⇒1,1,1 is normal vector to…

Problem 5. Let H be the plane x + y + z = 0, let în be a unit normal vector to H, and let L be the line chrough the origin which is perpendicular to H. Define two 3 × 3 matrices, as follows: P = îî™ Q = I3 – P a. If i is an arbitrary 3D vector, show that Pi is parallel to L, Qã is parallel to H, and * = Pa + Qã.

Problem 5. Let H be the plane x + y + z = 0, let în be a unit normal vector to H, and let L be the line chrough the origin which is perpendicular to H. Define two 3 × 3 matrices, as follows: P = îî™ Q = I3 – P a. If i is an arbitrary 3D vector, show that Pi is parallel to L, Qã is parallel to H, and * = Pa + Qã.

Linear Algebra: A Modern Introduction

4th Edition

ISBN:9781285463247

Author:David Poole

Publisher:David Poole

Chapter4: Eigenvalues And Eigenvectors

Section4.2: Determinants

Problem 10AEXP

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