F1 To be a subspace H of V, the following must all be true i. 0 (the zero vector) is in H ii. It is closed under addition. i.e. if u, v are in H, then u + v are in H iii. It is closed under scalar multiplication. i.e if u is in H, then for any constant c, cu is in H Show the following IS a subspace using Theorem 1. The set of all vectors of the form : {(2a, a - b, 4b): a, b = R}: 2a A a-b 46 This can also be written as To help you through this follow these steps. Note: You COULD prove all three conditions are met above (0 vector is in set, closed under vector addition, closed under scalar multiplication)...but this is a LOT OF WORK. It is EASIER to use the theorem used in class. Show this is in the span of a set of vectors. -- ■ 0 W DELL
F1 To be a subspace H of V, the following must all be true i. 0 (the zero vector) is in H ii. It is closed under addition. i.e. if u, v are in H, then u + v are in H iii. It is closed under scalar multiplication. i.e if u is in H, then for any constant c, cu is in H Show the following IS a subspace using Theorem 1. The set of all vectors of the form : {(2a, a - b, 4b): a, b = R}: 2a A a-b 46 This can also be written as To help you through this follow these steps. Note: You COULD prove all three conditions are met above (0 vector is in set, closed under vector addition, closed under scalar multiplication)...but this is a LOT OF WORK. It is EASIER to use the theorem used in class. Show this is in the span of a set of vectors. -- ■ 0 W DELL
Elementary Linear Algebra (MindTap Course List)
8th Edition
ISBN:9781305658004
Author:Ron Larson
Publisher:Ron Larson
Chapter5: Inner Product Spaces
Section5.CR: Review Exercises
Problem 41CR: Let B={(0,2,2),(1,0,2)} be a basis for a subspace of R3, and consider x=(1,4,2), a vector in the...
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Question
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To be a subspace H of V, the following must all be true
i. 0 (the zero vector) is in H
ii. It is closed under addition. i.e. if u, v are in H, then u + v are in H
iii. It is closed under scalar multiplication. i.e if u is in H, then for any constant c, cu is in H
Show the following IS a subspace using Theorem 1.
The set of all vectors of the form :{(2a, a - b, 4b): a, b = R}:
2a
A
a b
4b
This can also be written as
To help you through this follow these steps.
Note: You COULD prove all three conditions are met above (0 vector is in set, closed under vector addition,
closed under scalar multiplication)...but this is a LOT OF WORK.
It is EASIER to use the theorem used in class.
Show this is in the span of a set of vectors.
To do this bal.
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Transcribed Image Text:F1
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To be a subspace H of V, the following must all be true
i. 0 (the zero vector) is in H
ii. It is closed under addition. i.e. if u, v are in H, then u + v are in H
iii. It is closed under scalar multiplication. i.e if u is in H, then for any constant c, cu is in H
Show the following IS a subspace using Theorem 1.
The set of all vectors of the form :{(2a, a - b, 4b): a, b = R}:
2a
A
a b
4b
This can also be written as
To help you through this follow these steps.
Note: You COULD prove all three conditions are met above (0 vector is in set, closed under vector addition,
closed under scalar multiplication)...but this is a LOT OF WORK.
It is EASIER to use the theorem used in class.
Show this is in the span of a set of vectors.
To do this bal.
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NP
@
2
W
S
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This can also be written as
To help you through this follow these steps.
Note: You COULD prove all three conditions are met above (0 vector is in set, closed under vector addition,
closed under scalar multiplication)...but this is a LOT OF WORK.
It is EASIER to use the theorem used in class.
Show this is in the span of a set of vectors.
To do this I will help you through the process.
The vector can be written as
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Transcribed Image Text:=1
X
This can also be written as
To help you through this follow these steps.
Note: You COULD prove all three conditions are met above (0 vector is in set, closed under vector addition,
closed under scalar multiplication)...but this is a LOT OF WORK.
It is EASIER to use the theorem used in class.
Show this is in the span of a set of vectors.
To do this I will help you through the process.
The vector can be written as
2a
b
4-8-8
a
46
b
F2
N
4
@
2
MY
F3
#m
2a
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