Questions: The perimeter of the dilated rectangle will be times the perimeter of the original rectangle. The area of the dilated rectangle will be times the area of the original rectangle. A pentagon is dilated by a scale factor of 0.5. The perimeter of the dilated pentagon will be times the perimeter of the original pentagon. The area of the dilated pentagon will be times the area of the original pentagon. A hexagon is dilated by a scale factor of 2/7 The perimeter of the dilated hexagon will be times the perimeter of the original hexagon.

The perimeter of the dilated rectangle will be times the perimeter of the original rectangle.

The area of the dilated rectangle will be times the area of the original rectangle.

A pentagon is dilated by a scale factor of 0.5.

The perimeter of the dilated pentagon will be times the perimeter of the original pentagon.

The area of the dilated pentagon will be times the area of the original pentagon.

A hexagon is dilated by a scale factor of 2/7

The perimeter of the dilated hexagon will be times the perimeter of the original hexagon.
Transcript text: The perimeter of the dilated rectangle will be $\qquad$ times the perimeter of the original rectangle. The area of the dilated rectangle will be $\qquad$ times the area of the original rectangle. A pentagon is dilated by a scale factor of 0.5 . The perimeter of the dilated pentagon will be $\qquad$ times the perimeter of the original pentagon. The area of the dilated pentagon will be $\qquad$ times the area of the original pentagon. A hexagon is dilated by a scale factor of $\frac{2}{7}$ The perimeter of the dilated hexagon will be $\qquad$ times the perimeter of the original hexagon.
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Solution

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Solution Steps

To solve these problems, we need to understand the effect of dilation on the perimeter and area of geometric shapes. When a shape is dilated by a scale factor \( k \):

  1. The perimeter of the dilated shape will be \( k \) times the perimeter of the original shape.
  2. The area of the dilated shape will be \( k^2 \) times the area of the original shape.

Let's apply this to the given shapes and scale factors.

Solution Approach
  1. For the pentagon dilated by a scale factor of 0.5:

    • The perimeter of the dilated pentagon will be \( 0.5 \) times the perimeter of the original pentagon.
    • The area of the dilated pentagon will be \( (0.5)^2 = 0.25 \) times the area of the original pentagon.
  2. For the hexagon dilated by a scale factor of \( \frac{2}{7} \):

    • The perimeter of the dilated hexagon will be \( \frac{2}{7} \) times the perimeter of the original hexagon.
Step 1: Dilation of the Pentagon

For the pentagon dilated by a scale factor of \( k = 0.5 \):

  • The perimeter of the dilated pentagon will be \( 0.5 \) times the perimeter of the original pentagon.
  • The area of the dilated pentagon will be \( (0.5)^2 = 0.25 \) times the area of the original pentagon.
Step 2: Dilation of the Hexagon

For the hexagon dilated by a scale factor of \( k = \frac{2}{7} \):

  • The perimeter of the dilated hexagon will be \( \frac{2}{7} \) times the perimeter of the original hexagon.

Final Answer

The results are summarized as follows:

  • The perimeter of the dilated pentagon will be \( 0.5 \) times the perimeter of the original pentagon.
  • The area of the dilated pentagon will be \( 0.25 \) times the area of the original pentagon.
  • The perimeter of the dilated hexagon will be \( \frac{2}{7} \) times the perimeter of the original hexagon.

Thus, the final answers are: \[ \boxed{\text{Perimeter of dilated pentagon} = 0.5, \text{ Area of dilated pentagon} = 0.25, \text{ Perimeter of dilated hexagon} = \frac{2}{7}} \]

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