To determine the transformation applied to the pentagon, let's analyze the change from the original vertices to the new vertices.
The original vertices are:
- \(A(1, 1)\)
- \(B(2, 3)\)
- \(C(4, 3)\)
- \(D(5, 1)\)
- \(E(3, 0)\)
The transformed vertices are:
- \(A'(1, -1)\)
- \(B'(2, -3)\)
- \(C'(4, -3)\)
- \(D'(5, -1)\)
- \(E'(3, 0)\)
Now, let's compare the y-coordinates of the original vertices with those of the transformed vertices:
- For \(A\): \(1\) transforms to \(-1\) (change of \( -2\))
- For \(B\): \(3\) transforms to \(-3\) (change of \( -6\))
- For \(C\): \(3\) transforms to \(-3\) (change of \( -6\))
- For \(D\): \(1\) transforms to \(-1\) (change of \( -2\))
- For \(E\): \(0\) stays \(0\) (no change)
We can see that the y-coordinates of the transformed vertices are the negatives of the corresponding original vertices except for \(E\), which remains unchanged. This indicates a reflection over the x-axis.
Therefore, the correct transformation applied to the pentagon is:
Reflection over the x-axis.