To determine the similarity between the two triangles, we need to compare their angles.
For triangle \( \triangle ABC \):
- \( m\angle A = 47^\circ \)
- \( m\angle B = 36^\circ \)
- Therefore, we can find \( m\angle C \): \[ m\angle C = 180^\circ - (m\angle A + m\angle B) = 180^\circ - (47^\circ + 36^\circ) = 180^\circ - 83^\circ = 97^\circ \]
So, the angles for triangle \( \triangle ABC \) are:
- \( \angle A = 47^\circ \)
- \( \angle B = 36^\circ \)
- \( \angle C = 97^\circ \)
For triangle \( \triangle GHJ \):
- \( m\angle G = 36^\circ \)
- \( m\angle J = 97^\circ \)
We need to find \( m\angle H \): \[ m\angle H = 180^\circ - (m\angle G + m\angle J) = 180^\circ - (36^\circ + 97^\circ) = 180^\circ - 133^\circ = 47^\circ \]
So, the angles for triangle \( \triangle GHJ \) are:
- \( \angle G = 36^\circ \)
- \( \angle H = 47^\circ \)
- \( \angle J = 97^\circ \)
Now we can match the angles:
- \( m\angle A = 47^\circ \) corresponds to \( m\angle H = 47^\circ \)
- \( m\angle B = 36^\circ \) corresponds to \( m\angle G = 36^\circ \)
- \( m\angle C = 97^\circ \) corresponds to \( m\angle J = 97^\circ \)
Since all corresponding angles are equal, we conclude that:
\[ \triangle ABC \sim \triangle GHJ \]
Therefore, the correct response is: \[ \triangle ABC \sim \triangle GHJ \]