To determine the new position of point P after the translations, we start with the original coordinates of point P, which are \((-4,5)\).
First Translation:
The rule for the first translation is \((x + 3, y - 6)\).
- Calculate the new x-coordinate: \[ -4 + 3 = -1 \]
- Calculate the new y-coordinate: \[ 5 - 6 = -1 \] So after the first translation, point P becomes: \[ P' = (-1, -1) \]
Second Translation:
The rule for the second translation is \((x - 4, y + 2)\).
- Calculate the new x-coordinate: \[ -1 - 4 = -5 \]
- Calculate the new y-coordinate: \[ -1 + 2 = 1 \] So after the second translation, point P' becomes: \[ P'' = (-5, 1) \]
Determining the Quadrant: The coordinates \((-5, 1)\) place point P'' in the second quadrant (II), where x is negative and y is positive.
Answer to Question 1:
- Point P' is in Quadrant II.
Question 2: Write the rule for the composition transformation.
To find the rule for the composition, we need to combine both transformations systematically:
- First translation: \((x + 3, y - 6)\)
- Second translation: For the output of the first translation, we can plug in: \[ \text{New } x = x' - 4 \Rightarrow (x + 3) - 4 = x - 1 \] \[ \text{New } y = y' + 2 \Rightarrow (y - 6) + 2 = y - 4 \]
Putting it all together, the composition transformation rule from point \((x, y)\) is: \[ (x, y) \rightarrow (x - 1, y - 4) \]
Answer to Question 2:
- The rule for the composition transformation is \((x - 1, y - 4)\).