To determine the image of quadrilateral ABCD after the transformation \( R_{0, 90^\circ} \) (a 90-degree rotation about the origin), we can apply the transformation to each point of the quadrilateral.
For a 90-degree rotation counterclockwise about the origin, the transformation of a point \((x, y)\) can be expressed as:
\[ (x, y) \rightarrow (-y, x) \]
Let's apply this transformation to each of the points A, B, C, and D:
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Point A (-1, 0): \[ (-1, 0) \rightarrow (0, -1) \]
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Point B (0, -1): \[ (0, -1) \rightarrow (1, 0) \]
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Point C (-2, -3): \[ (-2, -3) \rightarrow (3, -2) \]
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Point D (-3, -2): \[ (-3, -2) \rightarrow (2, -3) \]
So after the transformation, the new coordinates of the points are:
- \( A' (0, -1) \)
- \( B' (1, 0) \)
- \( C' (3, -2) \)
- \( D' (2, -3) \)
Now we can compare these points with the options provided:
- A' (0, -1), B' (1, 0), C' (3, -2), D' (2, -3) <- This is correct.
- A' (0, 1), B' (0, -1), C' (-3, 2), D' (-2, 3)
- A' (0, -1), B' (-1, 0), C' (-3, -2), D' (-2, -3)
- A' (1, 0), B' (0, 1), C' (2, 3), D' (3, 2)
The correct image of the quadrilateral ABCD after the transformation \( R_{0, 90^\circ} \) is:
A' (0, -1), B' (1, 0), C' (3, -2), D' (2, -3).