Let S = L(V), S ‡ I, be a self-adjoint isometry of V. Prove that S is a reflection. That is, prove that there exists a subspace W of V such that S = Rw.

Linear Algebra: A Modern Introduction
4th Edition
ISBN:9781285463247
Author:David Poole
Publisher:David Poole
Chapter6: Vector Spaces
Section6.1: Vector Spaces And Subspaces
Problem 40EQ: In Exercises 24-45, use Theorem 6.2 to determine whether W is a subspace of V. V= F, W=finF:f(0)=1
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Let S = L(V), S ‡ I, be a self-adjoint isometry of V. Prove that S is a
reflection. That is, prove that there exists a subspace W of V such that S = Rw.
Transcribed Image Text:Let S = L(V), S ‡ I, be a self-adjoint isometry of V. Prove that S is a reflection. That is, prove that there exists a subspace W of V such that S = Rw.
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