To determine the transformations that demonstrate that the triangles are congruent, we analyze the coordinates of the vertices of the triangles.
Triangle in Quadrant 4 has vertices:
- \( A(1, -1) \)
- \( B(1, -3) \)
- \( C(3, -2) \)
Triangle in Quadrant 2 has vertices:
- \( D(-4, 2) \)
- \( E(-2, 2) \)
- \( F(-3, 4) \)
First, let’s visually check the positions of the triangles. The triangle in Quadrant 2 is located in the second quadrant, and the triangle in Quadrant 4 is in the fourth quadrant, suggesting some rotation.
Now let's analyze the transformations:
-
Rotation: The triangle in Quadrant 4 needs to be rotated around the origin to line up with the triangle in Quadrant 2. Since the vertices need to move from respective locations in Quadrant 4 to Quadrant 2, we'd perform a rotation of 180 degrees counterclockwise about the origin.
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Translation: After rotating, we need to translate the triangle to align it properly with the triangle in Quadrant 2. By examining the coordinates, the translation can be determined by calculating how far we would need to move the points after rotation.
Thus, the transformations that demonstrate the congruence of the triangles are:
- Rotation of \(180^\circ\) counterclockwise
- Translation of \((-2, 4)\) (This translation moves the centroid of the triangular shape in Quadrant 4 to the centroid of the triangular shape in Quadrant 2.)
Hence, the answer to the question is:
- Rotation of \(180^\circ\) counterclockwise and translation of \((-2, 4)\).