The given set is a basis for a subspace W. Use the Gram-Schmidt process to produce an orthogonal basis for W. An orthogonal basis for W is. (Type a vector or list of vectors. Use a comma to separate vectors as needed.) 9 04 2 - 2 N

Advanced Engineering Mathematics
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Author:Erwin Kreyszig
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Chapter2: Second-order Linear Odes
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### Orthogonal Basis using the Gram-Schmidt Process

#### Problem Statement:
The given set is a basis for a subspace W. Use the Gram-Schmidt process to produce an orthogonal basis for W.

The basis set provided is:
\[
\left \{ 
\begin{bmatrix} 
0 \\ 
2 \\ 
2 
\end{bmatrix}, 
\begin{bmatrix} 
9 \\ 
4 \\ 
-2 
\end{bmatrix} 
\right \} 
\]

---

#### Solution:
An orthogonal basis for \( W \) is:
\[ \left \{ \boxed{\phantom{...}} \right \} \]
(Type a vector or list of vectors. Use a comma to separate vectors as needed.)

---

#### Notes:
- The Gram-Schmidt process is a method for orthogonalizing a set of vectors in an inner product space, which most commonly means Euclidean space.
- Begin with the original basis vectors and apply the Gram-Schmidt formula to find the orthogonal vectors.
- Ensure the orthogonality by verifying that the inner product (dot product) of each pair of resulting vectors is zero.

Note: The image provides a clear layout of the problem and the basis vectors to be used in the Gram-Schmidt process.
Transcribed Image Text:### Orthogonal Basis using the Gram-Schmidt Process #### Problem Statement: The given set is a basis for a subspace W. Use the Gram-Schmidt process to produce an orthogonal basis for W. The basis set provided is: \[ \left \{ \begin{bmatrix} 0 \\ 2 \\ 2 \end{bmatrix}, \begin{bmatrix} 9 \\ 4 \\ -2 \end{bmatrix} \right \} \] --- #### Solution: An orthogonal basis for \( W \) is: \[ \left \{ \boxed{\phantom{...}} \right \} \] (Type a vector or list of vectors. Use a comma to separate vectors as needed.) --- #### Notes: - The Gram-Schmidt process is a method for orthogonalizing a set of vectors in an inner product space, which most commonly means Euclidean space. - Begin with the original basis vectors and apply the Gram-Schmidt formula to find the orthogonal vectors. - Ensure the orthogonality by verifying that the inner product (dot product) of each pair of resulting vectors is zero. Note: The image provides a clear layout of the problem and the basis vectors to be used in the Gram-Schmidt process.
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