In Exercises 40 through 46, consider vectors v → 1 , v → 2 , v → 3 in ℝ 4 ; we are told that v → i ⋅ v → j is the entry a i j of matrix A. A = [ 3 5 11 5 9 20 11 20 49 ] 45. Find p r o j v → ( v → 1 ) , where V = span ( v → 2 , v → 3 ) . Express youranswer as a linear combination of v → 2 and v → 3 .
In Exercises 40 through 46, consider vectors v → 1 , v → 2 , v → 3 in ℝ 4 ; we are told that v → i ⋅ v → j is the entry a i j of matrix A. A = [ 3 5 11 5 9 20 11 20 49 ] 45. Find p r o j v → ( v → 1 ) , where V = span ( v → 2 , v → 3 ) . Express youranswer as a linear combination of v → 2 and v → 3 .
Solution Summary: The author explains how to find proj_V(stackrelto v) where V =span
In Exercises 40 through 46, consider vectors
v
→
1
,
v
→
2
,
v
→
3
in
ℝ
4
; we are told that
v
→
i
⋅
v
→
j
is the entry
a
i
j
of matrix A.
A
=
[
3
5
11
5
9
20
11
20
49
]
45. Find
p
r
o
j
v
→
(
v
→
1
)
, where
V
=
span
(
v
→
2
,
v
→
3
)
. Express youranswer as a linear combination of
v
→
2
and
v
→
3
.
Quantities that have magnitude and direction but not position. Some examples of vectors are velocity, displacement, acceleration, and force. They are sometimes called Euclidean or spatial vectors.
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