Question
Warley graphs a polygon that is located entirely inside quadrant I . He rotates the figure clockwise \( 90 \circ \) about the origin and then reflects the rotated figure over the \( x \)-axis. He translates the resulting figure 3 units to the left and 3 units up Which best describes the location of the final image? quadrant I quadrant II above the \( x \)-axis left of the \( y \)-axis Mark this and return
Ask by Ward Haynes. in the United States
Jan 30,2025
Real Tutor Solution
Tutor-Verified Answer
Answer
The final image is in quadrant II, above the \( x \)-axis, and left of the \( y \)-axis.
Solution
To determine the location of the final image after Warley's transformations, let's analyze each step:
1. Warley graphs a polygon that is located entirely inside quadrant I.
2. He rotates the figure clockwise \( 90 \circ \) about the origin.
3. Then, he reflects the rotated figure over the \( x \)-axis.
4. Finally, he translates the resulting figure 3 units to the left and 3 units up.
After the rotation, the polygon will be in quadrant IV.
After the reflection over the \( x \)-axis, the polygon will be in quadrant III.
After the translation 3 units to the left and 3 units up, the polygon will be in quadrant II.
Therefore, the final image will be located in quadrant II, above the \( x \)-axis, and left of the \( y \)-axis.
So, the best description of the location of the final image is quadrant II, above the \( x \)-axis, and left of the \( y \)-axis.
Reviewed and approved by the UpStudy tutoring team
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The Deep Dive
After Warley rotates his polygon 90 degrees clockwise, the points that were originally in quadrant I will shift to quadrant IV. Then, reflecting this figure over the \( x \)-axis will move it up to quadrant III. Now, translating the figure 3 units to the left and 3 units up adjusts its position further, resulting in the final image moving into quadrant II. So, the best description of the final image is "quadrant II" as it has been moved into this area after all the transformations.