To show how AAS follows from the definition of congruence, answer the following question. What rigid transformation maps △A"B"C"→△DEF ? (1 point)

Question

rotation
reflection
translation
dilation

Answer 1

To determine what rigid transformation maps triangle $A"B"C"$ to triangle $DEF$, we first note the characteristics of rigid transformations. Rigid transformations include rotations, reflections, and translations, which preserve the shape and size of the figure. Dilation, on the other hand, changes the size of the figure, so it is not a rigid transformation.

To specify a transformation from triangle $A"B"C"$ to triangle $DEF$, you need to consider the positions and orientations of the triangles. Here’s how you can think about each of the options:

1. Rotation - If the triangles are oriented differently but are of the same size and shape, rotation could be the transformation.
2. Reflection - If one triangle is a mirror image of the other, reflection would be the transformation that maps one triangle to the other.
3. Translation - If the triangles are the same shape and size, but located at different positions without any rotation or reflection, then translation would map one to the other.
4. Dilation - This does not apply as it would change the size of the triangle, which does not fit the definition of congruence.

To definitively answer your question, you would need additional information about the specific positions and orientations of the triangles to pinpoint the exact type of transformation. However, since the question involves congruence, one of the first three transformations (rotation, reflection, or translation) must apply.

If I had to choose without additional context, I would generally consider that the transformation could be a translation, as it's one of the most straightforward options for mapping congruent shapes.

In summary, the answer depends on the specific details of how triangles $A"B"C"$ and $DEF$ are positioned relative to each other.