Show that (u₁, 4₂) is an orthogonal basis for R². Then express x as a linear combination of the u's. 16 ---[-]}-₂-[1])--[-2] = and x = u₁ vynion theorem could help prove one of these criteria from another? ⒸA. IfS= {U₁,..., up and the distance between any pair of distinct vectors is constant, then the vectors are evenly spaced and hence form an orthogonal set. and each u, has length 1, then S is an orthogonal set and hence is a basis for the subspace spanned by S. OB. If S= (₁. up C. IfS= {U₁₁ Up} D. If S = (₁, ..., up) is a basis in RP, then the members of S span RP and hence form an orthogonal set. What calculation shows that (u₁, ₂) is an orthogonal basis for R²? Since the inner product of u₁ and u₂ is 0, the vectors form an orthogonal set. From the theorem above, this proves that the vectors are also linearly independent vectors in R². Express x as a linear combination of the u's. X: **** is an orthogonal set of nonzero vectors in R, then S is linearly independent and hence is a basis for the subspace spanned by S. U₁ + (Simplify your answers. Use integers or fractions for any numbers in the equation.) a basis for R² because they are two
Show that (u₁, 4₂) is an orthogonal basis for R². Then express x as a linear combination of the u's. 16 ---[-]}-₂-[1])--[-2] = and x = u₁ vynion theorem could help prove one of these criteria from another? ⒸA. IfS= {U₁,..., up and the distance between any pair of distinct vectors is constant, then the vectors are evenly spaced and hence form an orthogonal set. and each u, has length 1, then S is an orthogonal set and hence is a basis for the subspace spanned by S. OB. If S= (₁. up C. IfS= {U₁₁ Up} D. If S = (₁, ..., up) is a basis in RP, then the members of S span RP and hence form an orthogonal set. What calculation shows that (u₁, ₂) is an orthogonal basis for R²? Since the inner product of u₁ and u₂ is 0, the vectors form an orthogonal set. From the theorem above, this proves that the vectors are also linearly independent vectors in R². Express x as a linear combination of the u's. X: **** is an orthogonal set of nonzero vectors in R, then S is linearly independent and hence is a basis for the subspace spanned by S. U₁ + (Simplify your answers. Use integers or fractions for any numbers in the equation.) a basis for R² because they are two
Advanced Engineering Mathematics
10th Edition
ISBN:9780470458365
Author:Erwin Kreyszig
Publisher:Erwin Kreyszig
Chapter2: Second-order Linear Odes
Section: Chapter Questions
Problem 1RQ
Related questions
Question
Show that
u1, u2
is an orthogonal basis for
ℝ2.
Then express x as a linear combination of the
u's.
u1=
,
2 | ||
−8 |
u2=
,
and
16 | ||
4 |
x=
9 | ||
−2 |
Question content area bottom
Part 1
Which of the following criteria are necessary for a set of vectors to be an orthogonal basis for
ℝ2?
Select all that apply.The vectors must all have a length of 1.
The vectors must span
ℝ2.
The vectors must form an orthogonal set.
The distance between any pair of distinct vectors must be constant.
Part 2
Which theorem could help prove one of these criteria from another?
If
S=u1, ..., up
and the distance between any pair of distinct vectors is constant, then the vectors are evenly spaced and hence form an orthogonal set.If
S=u1, ..., up
and each
ui
has length 1, then S is an orthogonal set and hence is a basis for the subspace spanned by S.If
S=u1, ..., up
is an orthogonal set of nonzero vectors in
ℝn,
then S is linearly independent and hence is a basis for the subspace spanned by S.If
S=u1, ..., up
is a basis in
ℝp,
then the members of S span
ℝp
and hence form an orthogonal set.Part 3
What calculation shows that
u1, u2
is an orthogonal basis for
ℝ2?
Since the
is
From the theorem above, this proves that the vectors are also
because they are two
inner product of Bold u 1 and Bold u 2inner product of u1 and u2
00,
the vectors
form an orthogonal set.
a basis for set of real numbers R squareda basis for ℝ2
linearly independent vectors in set of real numbers R squared .linearly independent vectors in ℝ2.
Linear Algebra
Part 4
Express x as a linear combination of the
u's.
x=enter your response hereu1+enter your response hereu2
(Simplify your answers. Use integers or fractions for any numbers in the equation.)
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