To determine the new position of point P after the two translations, we’ll perform each translation step by step.
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Initial position: \[ P(-4, 5) \]
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First translation: \( (x + 3, y - 6) \) \[ P' = (-4 + 3, 5 - 6) = (-1, -1) \]
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Second translation: \( (x - 4, y + 2) \) \[ P'' = (-1 - 4, -1 + 2) = (-5, 1) \]
Now we have the new coordinates for point P after both transformations: \[ P''(-5, 1) \]
To determine the quadrant:
- The x-coordinate is -5 (negative).
- The y-coordinate is 1 (positive).
Based on these coordinates:
- If x < 0 and y > 0, the point is in Quadrant II.
Answer to Question 1:
Quadrant II
Answer to Question 2:
To write the rule for the composition of the transformations:
- Combine both transformations mathematically:
- Start with \( P(x, y) \), translate: \[ (x + 3, y - 6) \rightarrow P'(x + 3, y - 6) \]
- Then apply the second translation: \[ P'(x + 3 - 4, y - 6 + 2) = P'(x - 1, y - 4) \]
- The complete transformation can be expressed as: \[ (x - 1, y - 4) \]
Final answer to Question 2:
(x - 1, y - 4)