In a dilation, the segments are proportional. The relationship can be expressed as:
\[ \frac{\text{Length of an original segment}}{\text{Corresponding length in the image}} = \text{Scale Factor} \]
Let's denote the lengths of the segments in triangle \( TUV \) as follows:
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\( TU = 2 \) in
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\( T'U' = 6 \) in
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\( UV = 9 \) in
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\( U'V' = x \) in (missing)
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\( TV = 8 \) in
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\( T'V' = y \) in (missing)
We can start by calculating the scale factor using the segments that we know:
\[ \text{Scale Factor} = \frac{T'U'}{TU} = \frac{6}{2} = 3 \]
Now we can use this scale factor to find the missing lengths:
For \( U'V' \):
Using the scale factor on segment \( UV \):
\[ \frac{U'V'}{UV} = \text{Scale Factor} \]
\[ \frac{x}{9} = 3 \]
Now solve for \( x \):
\[ x = 3 \times 9 = 27 \]
Thus, \( U'V' = 27 \) in.
For \( T'V' \):
Similarly, using the scale factor on segment \( TV \):
\[ \frac{T'V'}{TV} = \text{Scale Factor} \]
\[ \frac{y}{8} = 3 \]
Now solve for \( y \):
\[ y = 3 \times 8 = 24 \]
Thus, \( T'V' = 24 \) in.
Summary of Results:
- \( U'V' = 27 \) in
- \( T'V' = 24 \) in
You can fill in the blanks with these values:
- \( U'V' = 27 \) in
- \( T'V' = 24 \) in