To find the coordinates of the dilated triangle \( A'B'C' \) from triangle \( ABC \) with a center of dilation at \( (2,0) \) and a magnitude of \( 2 \), we use the formula for dilation:
\[ P' = C + k(P - C) \]
where:
- \( P \) are the original coordinates of the points,
- \( C \) is the center of dilation,
- \( k \) is the magnitude of dilation,
- \( P' \) are the new coordinates after dilation.
Given points:
- \( A = (1, 6) \)
- \( B = (3, 0) \)
- \( C = (6, 4) \)
Center of dilation:
- \( C = (2, 0) \)
Magnitude of dilation:
- \( k = 2 \)
Now we perform the dilation for each point.
For point A:
\[ A' = (2, 0) + 2 \left( (1, 6) - (2, 0) \right) \] \[ = (2, 0) + 2 \left( (-1, 6) \right) \] \[ = (2, 0) + (-2, 12) \] \[ = (0, 12) \]
For point B:
\[ B' = (2, 0) + 2 \left( (3, 0) - (2, 0) \right) \] \[ = (2, 0) + 2 \left( (1, 0) \right) \] \[ = (2, 0) + (2, 0) \] \[ = (4, 0) \]
For point C:
\[ C' = (2, 0) + 2 \left( (6, 4) - (2, 0) \right) \] \[ = (2, 0) + 2 \left( (4, 4) \right) \] \[ = (2, 0) + (8, 8) \] \[ = (10, 8) \]
Final dilated points:
- \( A' = (0, 12) \)
- \( B' = (4, 0) \)
- \( C' = (10, 8) \)
Thus, the coordinates of the dilated triangle \( A'B'C' \) are:
- \( A' (0, 12), B' (4, 0), C' (10, 8) \)
The correct response is: A' (0,12), B' (4,0), C' (10,8).