QUESTION IMAGE
Question
determine the relationship between the two triangles and whether or not they can be proven to be congruent.
answer attempt 1 out of 2
the two triangles are related by ~ , so the triangles ~ .
Step1: Identify Given Information
Each triangle has a marked side (indicating they are equal) and two marked angles. Let's denote the first triangle's angles as \( \angle A, \angle B \) with side \( AB \), and the second's as \( \angle C, \angle D \) with side \( CD \). The marked side is equal (\( AB = CD \)), and two angles: one angle in each triangle is equal (the marked angle), and another angle (the other marked angle) is equal. Wait, actually, looking at the triangles: the first triangle has a marked side (let's say the base) and two base angles marked. The second triangle has a marked side (corresponding to the first's base) and two angles marked, one corresponding to the first's base angle, and one to the other base angle. Wait, more precisely, using the Angle - Side - Angle (ASA) congruence criterion. Let's see: in the first triangle, we have a side between two angles, and in the second triangle, the corresponding side between two corresponding angles. So the triangles are related by a rigid transformation (like rotation or reflection) that maps one to the other, and we can prove congruence by ASA.
Step2: Apply Congruence Criterion
The ASA (Angle - Side - Angle) criterion states that if two angles and the included side of one triangle are congruent to two angles and the included side of another triangle, then the triangles are congruent. Here, the marked side is the included side between the two marked angles in each triangle. So the two triangles have two angles and the included side equal, so by ASA, they are congruent. So the relationship is a congruence relationship (via ASA), and they can be proven congruent.
Wait, the first blank is "The two triangles are related by [a transformation that preserves congruence, like rotation/reflection, and the congruence is via ASA]". Wait, the first part: "The two triangles are related by [the ASA congruence condition, or a rigid motion]". Wait, the problem says "The two triangles are related by [something] ~, so the triangles [are congruent or not]". Wait, maybe the first blank is the congruence correspondence (like a rotation or reflection, or the ASA condition). Let's re - examine the triangles:
Looking at the triangles, one triangle can be rotated (maybe 180 degrees or some angle) to match the other. The marked side is equal, and two angles are equal. So the triangles are related by a rigid transformation (such as rotation) that maps one to the other, and by the ASA congruence postulate, they are congruent.
So, the two triangles are related by a rigid transformation (like rotation) that aligns their corresponding parts, and we can prove they are congruent by ASA. So the first blank: the triangles are related by having two angles and the included side equal (i.e., ASA correspondence), so the relationship is a congruence - inducing transformation (like rotation) that makes them satisfy ASA, and thus they are congruent.
Wait, more precisely, the first part: "The two triangles are related by a rotation (or reflection) that maps one to the other, with two angles and the included side equal", but in terms of the congruence criterion, the key is that they have two angles and the included side equal (ASA). So the first blank should be filled with the fact that they have two angles and the included side equal (so the relationship is ASA - based), and then the triangles are congruent.
So, to fill in the blanks: The two triangles are related by a rigid transformation (or the ASA congruence condition) (but more precisely, the ASA congruence: two angles and the included side ar…
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The two triangles are related by \(\boldsymbol{\text{two angles and the included side (ASA)}}\) ~, so the triangles \(\boldsymbol{\text{are congruent}}\).