Chapter 3: Q17E (page 131)
In Exercises 10through 20, use paper and pencil to identify the redundant vectors. Thus determine whether the given vectors are linearly independent.
Short Answer
The vectors are non redundant and linearly independent.
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Chapter 3: Q17E (page 131)
In Exercises 10through 20, use paper and pencil to identify the redundant vectors. Thus determine whether the given vectors are linearly independent.
The vectors are non redundant and linearly independent.
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Consider a linear transformation T fromto and some linearly dependent vectorsin. Are the vectorsrole="math" localid="1659357833635" necessarily linearly dependent? How can you tell?
Show that if a 3 x 3 matrix A represents the reflection about a plane, then A is similar to the matrix .
In Problem 46 through 55, Find all the cubics through the given points. You may use the results from Exercises 44 and 45 throughout. If there is a unique cubic, make a rough sketch of it. If there are infinitely many cubics, sketch two of them.
How many cubics can you fit through 10 distinct points ?. Describe all possible scenarios, and give an example in each case.
(a) Let be a subset of role="math" localid="1660109056998" . Let be the largest number of linearly independent vectors we can find in . (Note , by Theorem 3.2.8.) Choose linearly independent vectors in. Show that the vectors span and are therefore a basis of . This exercise shows that any subspace of has a basis.
If you are puzzled, think first about the special case when role="math" localid="1660109086728" is a plane in . What is in this case?
(b) Show that any subspace of can be represented as the image of a matrix.
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