To analyze the dilation of angle DEF with respect to the origin (0,0) and a scale factor of 4, we apply the dilation formula for each point, which is \( (x', y') = (kx, ky) \) where \( k \) is the scale factor and \( (x, y) \) are the original coordinates of the points.
Given:
- Point D: \( (-2, -4) \)
- Point E: \( (2, 1) \)
- Point F: \( (3, -3) \)
We can calculate the dilated points as follows:
-
For point D: \[ D' = (4 \cdot -2, 4 \cdot -4) = (-8, -16) \]
-
For point E: \[ E' = (4 \cdot 2, 4 \cdot 1) = (8, 4) \]
-
For point F: \[ F' = (4 \cdot 3, 4 \cdot -3) = (12, -12) \]
After the dilation:
- D' is at \( (-8, -16) \)
- E' is at \( (8, 4) \)
- F' is at \( (12, -12) \)
These points maintain the same angle measurement as angle DEF, and the rays are parallel because dilations preserve angle measurements and the directional relationships of points are scaled consistently.
From the options provided, the correct response that matches these results and the properties of dilation is:
Option #1: After dilation, the lines are four times farther from the point of dilation. The angle measurement remains the same. Corresponding lines (rays) are parallel between the angle and the dilated angle. The resulting points are D′(−8,−16), E′(8,4), and F′(12,−12).
Thus, the answer is:
Option #1