To solve Question 1 regarding the initial point P at (-4, 5) after two translations, let's break it down step-by-step.
Step 1: First Translation
The first translation rule is (x + 3, y - 6). We will apply this rule to point P.
- Original point P: (-4, 5)
- Applying the translation:
- x-coordinate: -4 + 3 = -1
- y-coordinate: 5 - 6 = -1
So, after the first translation, point P' becomes (-1, -1).
Step 2: Second Translation
The second translation rule is (x - 4, y + 2). We will apply this rule to point P' (-1, -1).
- New point P': (-1, -1)
- Applying the translation:
- x-coordinate: -1 - 4 = -5
- y-coordinate: -1 + 2 = 1
So, after the second translation, point P'' becomes (-5, 1).
Determining the Quadrant
Now we need to determine the quadrant in which point P'' (-5, 1) lies.
- The x-coordinate is -5 (which is negative).
- The y-coordinate is 1 (which is positive).
In the Cartesian plane, points with a negative x-coordinate and a positive y-coordinate are located in the II Quadrant.
Answer to Question 1:
The correct answer regarding which quadrant point P' will be in is II.
Question 2: Write the Rule for the Composition Transformation
To write the rule for the composition transformation from the original point P (-4, 5) to point P'' (-5, 1), we can combine both transformation rules.
- The first transformation: (x + 3, y - 6)
- The second transformation: (x - 4, y + 2)
To find the overall transformation:
- Starting with (x, y):
- Apply the first transformation:
- New \(x_1 = x + 3\)
- New \(y_1 = y - 6\)
- Apply the second transformation:
- New \(x_2 = (x + 3) - 4 = x - 1\)
- New \(y_2 = (y - 6) + 2 = y - 4\)
- Apply the first transformation:
Thus, the overall rule for the composition transformation is:
(x - 1, y - 4)
Answer to Question 2:
The rule for the composition transformation in the required format is: (x - 1, y - 4)