To analyze the transformation from the triangle in Quadrant IV to the triangle in Quadrant II, we need to consider the positions of the corresponding points:
- Quadrant IV triangle vertices: \( (1, -3) \), \( (3, -3) \), \( (1, -7) \)
- Quadrant II triangle vertices: \( (-5, 3) \), \( (-1, 3) \), \( (-5, 5) \)
A good approach to understand the congruence and transformation is to check for geometric relationships, particularly if reflections or rotations can map one set of points to the other.
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Reflection: The triangles could be reflected across the x-axis, which would change the y-coordinates of the Quadrant IV points to their opposites.
- Reflecting \( (1, -3) \) across the x-axis gives \( (1, 3) \).
- Reflecting \( (3, -3) \) gives \( (3, 3) \).
- Reflecting \( (1, -7) \) gives \( (1, 7) \).
However, this does not map directly to the Quadrant II triangle.
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Translation: After finding the possible reflections, we need to check if a translation can align the reflected points with the target Quadrant II triangle.
To align, we would need to translate:
- If we reflect then shift down (essentially a transformation of more than one step), this may be too complex.
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Verifying via Rotation: Let's consider a 180-degree rotation about the origin followed by a translation.
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A rotation of 180 degrees would transform Quadrant IV to Quadrant II:
- For \( (1, -3) \) → \( (-1, 3) \)
- For \( (3, -3) \) → \( (-3, 3) \)
- For \( (1, -7) \) → \( (-1, 7) \)
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Now we could translate those points, which would be the final transformation to get to the positions of the second triangle.
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Ultimately, it seems the key transformation that achieves this result with the fewest steps is reflection, then translation. The most fitting response is:
reflection, then translation