To determine which statement matches the vector operation shown on the coordinate grid, we first need to calculate the vectors \( v \), \( w \), and \( u \) based on their endpoints.
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Vector \( v \):
- Initial point: \( (-1, 0) \)
- Terminal point: \( (3, 3) \)
- Components:
- \( v = (3 - (-1))i + (3 - 0)j = 4i + 3j \)
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Vector \( w \):
- Initial point: \( (3, 3) \)
- Terminal point: \( (5, 2) \)
- Components:
- \( w = (5 - 3)i + (2 - 3)j = 2i - j \)
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Vector \( u \):
- Initial point: \( (-1, 0) \)
- Terminal point: \( (5, 2) \)
- Components:
- \( u = (5 - (-1))i + (2 - 0)j = 6i + 2j \)
Now that we have the vectors:
- \( v = 4i + 3j \)
- \( w = 2i - j \)
- \( u = 6i + 2j \)
Next, we can check the vector operations to see if they sum up correctly:
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Check \( v + u\): \[ v + u = (4i + 3j) + (6i + 2j) = (4 + 6)i + (3 + 2)j = 10i + 5j \] Therefore, this does NOT match \( w \) since \( w = 2i - j \).
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Check \( v + w \): \[ v + w = (4i + 3j) + (2i - j) = (4 + 2)i + (3 - 1)j = 6i + 2j \] This gives us \( u \), confirming that \( v + w = u \).
Given these calculations, we evaluate the answer options:
- The correct statement from the options is:
\( v + w = u \) for \( v = 4i + 3j \), \( w = 2i - j \), and \( u = 6i + 2j \).
Thus, the response that matches the vector operations shown is: v + w = u for v = 4i + 3j, w = 2i - j, and u = 6i + 2j.