Suppose V is a vector space with scalar fleld R. Thomas and Valentina want to prove that some set S C V is a subspace of V. Thomas decides to play it safe and use the Subspace Theorem, as stated in the notes, and check that the following three statements are true: (A) S contains the zero vector 0. (B) S is closed under vector addition. (C) Sis closed under scalar multiplication. But Valentina wants change condition (A) to something that they think is simpler. Valentina also thinks that (C) is unnecessary. As a result, Valentina proposes using just the following two conditions to prove that S is a subspace of V: (1) S {}. (2) If u, v € S then u + v € S. (a) Is it correct to claim that statement (A) can be replaced with statement (1) if (B) and (C) are kept? Select the option you believe to be true and then prove your assertion in the box tolow. O Yes, (A) can be replaced with (1). No, (A) cannot be replaced with (1). (The question continues below this essay box, make sure you scroll to the end of this question.)
Suppose V is a vector space with scalar fleld R. Thomas and Valentina want to prove that some set S C V is a subspace of V. Thomas decides to play it safe and use the Subspace Theorem, as stated in the notes, and check that the following three statements are true: (A) S contains the zero vector 0. (B) S is closed under vector addition. (C) Sis closed under scalar multiplication. But Valentina wants change condition (A) to something that they think is simpler. Valentina also thinks that (C) is unnecessary. As a result, Valentina proposes using just the following two conditions to prove that S is a subspace of V: (1) S {}. (2) If u, v € S then u + v € S. (a) Is it correct to claim that statement (A) can be replaced with statement (1) if (B) and (C) are kept? Select the option you believe to be true and then prove your assertion in the box tolow. O Yes, (A) can be replaced with (1). No, (A) cannot be replaced with (1). (The question continues below this essay box, make sure you scroll to the end of this question.)
Advanced Engineering Mathematics
10th Edition
ISBN:9780470458365
Author:Erwin Kreyszig
Publisher:Erwin Kreyszig
Chapter2: Second-order Linear Odes
Section: Chapter Questions
Problem 1RQ
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