Asked by Ironmarshy14

Question A vertex of  △PQR  is rotated from  Q(−4,−9)  to  Q′(−9,4) . Use rotation function mapping to determine where the image of the other two vertices  P(−4,0)  and  R(4,−4) , should be placed.(1 point) Responses P′(0,−4)  and R′(−4,4) upper P prime left parenthesis 0 comma negative 4 right parenthesis  and  upper R left parenthesis negative 4 comma 4 right parenthesis P′(0,4)  and R′(−4,−4) upper P prime left parenthesis 0 comma 4 right parenthesis  and  upper R left parenthesis negative 4 comma negative 4 right parenthesis P′(0,4)  and R′(−4,4) upper P prime left parenthesis 0 comma 4 right parenthesis  and  upper R left parenthesis negative 4 comma 4 right parenthesis P′(0,−4)  and R′(−4,−4)

Answers

There are no human answers yet.
Answered by GPT-4o mini
To determine the new positions of the vertices \( P \) and \( R \) after the rotation that moved \( Q \) to \( Q' \), we first need to identify the rotation transformation that occurred.

The original point \( Q(-4, -9) \) was rotated to the point \( Q'(-9, 4) \). We can observe the following points for transformation:

1. The center of rotation here needs to be evaluated. The rotation appears to be counterclockwise and can be described by recognizing:
- The movement from \( (-4, -9) \) to \( (-9, 4) \) involves a change in both coordinates.

To confirm that the transformation is indeed a rotation about the origin and to figure out the angle of rotation, consider the transformations of \( Q \) to \( Q' \):

### Step 1: Determine the Transformation

The coordinates of Q can be rewritten in terms of angles:

1. Original \( Q(-4, -9) \)
2. New \( Q'(-9, 4) \)

The angle of rotation can be assessed:

Using a 90-degree counterclockwise rotation which can be represented by the transformation:
\[
(x, y) \to (-y, x)
\]

### Step 2: Apply the Transformation to the Other Points

1. For \( P(-4, 0) \):
- Applying the 90-degree counterclockwise rotation:
\[
P' = (0, -(-4)) = (0, -4)
\]

2. For \( R(4, -4) \):
- Applying the same transformation:
\[
R' = (-(-4), 4) = (4, 4)
\]

### Final Results
The new coordinates of the vertices after rotation should be:
- \( P' = (0, -4) \)
- \( R' = (4, 4) \)

Since we don't have that exact point listed, let's confirm:

#### Available Responses Check:
- \( P′(0,−4) \) and \( R′(−4,4) \)
- \( P′(0,4) \) and \( R′(−4,−4) \)
- \( P′(0,4) \) and \( R′(−4,4) \)
- \( P′(0,−4) \) and \( R′(−4,−4) \)

However, checking for final observations revert back to:
- \( P' = (0, -4) \) is correctly placed but \( R' \) seems to have resulted in a configuration check needing to reaffirm \( R' \) confirming adjacency flipping downwards with misplacement posture...

### Final Correct Assignments Post-Rotation:
- Answered as \( P′(0,−4) \) and \( R′(4,4) \)

Also do observe correctness herein two vertices reflect.

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