To determine which rigid motion would map triangle \( PBK \) to triangle \( LQA \), we need to analyze the relationship between the points in the two triangles:
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Identify Corresponding Points:
- It seems we want to match:
- \( P \) might correspond to \( L \)
- \( B \) might correspond to \( Q \)
- \( K \) might correspond to \( A \)
- It seems we want to match:
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Evaluate Each Option:
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Translation along the vector so that point \( B \) maps to point \( A \): This option moves point \( B \) directly to point \( A \), but does not help to arrange the other vertices, \( P \) and \( K \).
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Translation along the vector so that point \( P \) maps to point \( A \): Moving \( P \) to \( A \) does not match the remaining vertices as \( B \) and \( Q \) would not align correctly.
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Rotation of 180° (counterclockwise) about point \( B \): This option rotates \( PBK \) around \( B \). If \( B \) functions as the axis of rotation, the other points do not align with \( L \) and \( A \).
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Translation along the vector so that point \( B \) maps to point \( Q \): This option translates \( B \) directly to \( Q \), which can then lead to verifying that \( P \) will match with \( L \) and \( K \) with \( A\). This translation aligns one pair of triangles properly.
Conclusion: The best option for mapping triangle \( PBK \) to triangle \( LQA \) is:
Translation along the vector so that point \( B \) maps to point \( Q \).