Let = ( v → 1 , v → 2 , v → 3 ) be any basis of ℝ 3 consisting of perpendicular unit vectors, such that v → 3 = v → 1 × v → 2 . In Exercises 31 through 36, find the matrix B of the given linear transformation T from ℝ 3 to ℝ 3 . Interpret T geometrically. 34. T ( x → ) = x → − 2 ( v → 3 ⋅ x → ) v → 3
Let = ( v → 1 , v → 2 , v → 3 ) be any basis of ℝ 3 consisting of perpendicular unit vectors, such that v → 3 = v → 1 × v → 2 . In Exercises 31 through 36, find the matrix B of the given linear transformation T from ℝ 3 to ℝ 3 . Interpret T geometrically. 34. T ( x → ) = x → − 2 ( v → 3 ⋅ x → ) v → 3
Solution Summary: The author explains how the matrix B can be obtained from column by column method.
Let
=
(
v
→
1
,
v
→
2
,
v
→
3
)
be any basis of
ℝ
3
consisting of perpendicular unit vectors, such that
v
→
3
=
v
→
1
×
v
→
2
. In Exercises 31 through 36, find the matrix B of the given linear transformation T from
ℝ
3
to
ℝ
3
. Interpret T geometrically.
34.
T
(
x
→
)
=
x
→
−
2
(
v
→
3
⋅
x
→
)
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.
Consider the table of values below.
x
y
2
64
3
48
4
36
5
27
Fill in the right side of the equation y= with an expression that makes each ordered pari (x,y) in the table a solution to the equation.
solving for x
Consider the table of values below.
x
y
2
63
3
70
4
77
5
84
Fill in the right side of the equation y= with an expression that makes each ordered pari (x,y) in the table a solution to the equation.
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Linear Equation | Solving Linear Equations | What is Linear Equation in one variable ?; Author: Najam Academy;https://www.youtube.com/watch?v=tHm3X_Ta_iE;License: Standard YouTube License, CC-BY