To move triangle \( A B C \) in Quadrant IV to triangle \( E G H \) in Quadrant II and demonstrate that they are congruent, we can analyze the transformations required.
Given the coordinates of the triangles:
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Triangle \( A B C \):
- \( A(1, -1) \)
- \( B(1, -3) \)
- \( C(4, -3) \)
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Triangle \( E G H \):
- \( E(-2, 5) \)
- \( G(-2, 3) \)
- \( H(-5, 3) \)
Steps to Show Congruence
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Reflection: The first step would involve reflecting triangle \( A B C \) across the y-axis. This will change the coordinates as follows:
- \( A(1, -1) \) becomes \( A'(-1, -1) \)
- \( B(1, -3) \) becomes \( B'(-1, -3) \)
- \( C(4, -3) \) becomes \( C'(-4, -3) \)
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Translation: Notice that after reflection, triangle \( A' B' C' \) is located in Quadrant III. To move it to Quadrant II, we need to translate the triangle to the left and upwards. The translation that achieves this is \( (-1, 6) \):
- \( A'(-1, -1) \) translates to \( (-1 - 1, -1 + 6) = (-2, 5) = E \)
- \( B'(-1, -3) \) translates to \( (-1 - 1, -3 + 6) = (-2, 3) = G \)
- \( C'(-4, -3) \) translates to \( (-4 - 1, -3 + 6) = (-5, 3) = H \)
Now the transformed triangle's vertices match exactly with those of triangle \( EGH \).
Conclusion
The required transformations are reflection to Quadrant III, then translation of \( (-1, 6) \).
Thus, the correct answer is: reflection to Quadrant III, then a translation of \( (-1, 6) \).