To determine the new positions of the vertices \( P \) and \( R \) after the rotation of vertex \( Q \) from \( Q(-4, -9) \) to \( Q'(-9, 4) \), we can follow the rotation operation.
The transformation can be inferred to be a 90-degree counterclockwise rotation around the origin. The general rule for a 90-degree counterclockwise rotation of a point \( (x, y) \) is given by: \[ (x, y) \to (-y, x) \]
Step 1: Apply the transformation to point \( P(-4, 0) \)
Using the rotation rule: \[ P(-4, 0) \to (-0, -4) = (0, -4) \] So, \( P' \) will be \( (0, -4) \).
Step 2: Apply the transformation to point \( R(4, -4) \)
Using the rotation rule: \[ R(4, -4) \to (4, -4) \to (4, -4) = (4, 4) \] So, \( R' \) will be \( (-4, 4) \).
Based on our calculations, the coordinates after rotation are:
- \( P' = (0, -4) \)
- \( R' = (-4, 4) \)
Conclusion:
Thus, the image of the points after rotation is:
- \( P' \) is at \( (0, -4) \)
- \( R' \) is at \( (-4, 4) \)
The correct response from the options would be: P′(0,−4) and R′(−4,4).