To fill in the blanks for the given triangle, we will assume you're solving for the missing side \( a \) using the Pythagorean theorem. The triangle has one side of \( \sqrt{62} \) inches, another side of \( 6 \) inches, and we need to find the missing side \( a \).
We can identify \( \sqrt{62} \) as the hypotenuse and \( 6 \) as one of the legs of the triangle.
Using the Pythagorean theorem:
\[ a^2 + b^2 = c^2 \]
where:
- \( a \) is the length of one leg (unknown),
- \( b = 6 \) inches is the length of the other leg,
- \( c = \sqrt{62} \) inches is the hypotenuse.
Now we can fill in the equations step by step using the values provided:
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Starting with: \[ a^2 + b^2 = c^2 \] Filling in the known values: \[ a^2 + 6^2 = (\sqrt{62})^2 \]
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Now substitute the squares: \[ a^2 + 36 = 62 \]
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Next, solve for \( a^2 \): \[ a^2 = 62 - 36 \] \[ a^2 = 26 \]
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Finally, take the square root: \[ \sqrt{a^2} = \sqrt{26} \]
Now, we can fill in the respective blanks:
- a^(2) + 6^(2) = (\sqrt{62})^(2)
- a^(2) + 6^(2) = (\sqrt{62})^(2)
- a^(2) + 36 = 62
- a^(2) = 26
- \sqrt{a^2} = \sqrt{26}
- a = \sqrt{26} in.
So the blanks can be filled as follows:
- 6
- 6
- 36
- 26
- 26
Thus, the complete set of filled equations is:
- a^(2) + 6^(2) = (\sqrt{62})^(2)
- a^(2) + 6^(2) = 62
- a^(2) + 36 = 62
- a^(2) = 26
- \sqrt(a^(2)) = \sqrt{26}
- a = \sqrt{26} in.