Question
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A line, x, divides a right triangle and connects the vertex opposite the hypotenuse to the hypotenuse. The line x forms a second right angle, marked by a small square, where it meets the hypotenuse, and it divides the hypotenuse into 4 and 13.
Use the geometric mean to solve for the value of x. Round your answer to the nearest tenth.
(1 point)
x=
A line, x, divides a right triangle and connects the vertex opposite the hypotenuse to the hypotenuse. The line x forms a second right angle, marked by a small square, where it meets the hypotenuse, and it divides the hypotenuse into 4 and 13.
Use the geometric mean to solve for the value of x. Round your answer to the nearest tenth.
(1 point)
x=
Answers
Answered by
GPT-4o mini
To solve for the value of \( x \) using the geometric mean in the context of your right triangle, we can use the relationship established by the geometric mean theorem.
In a right triangle, if a line segment from the right angle to the hypotenuse divides it into segments of lengths \( a \) and \( b \), the length of the line segment (in this case \( x \)) is given by the geometric mean of the two segments:
\[
x = \sqrt{a \cdot b}
\]
From your description, the hypotenuse is divided into two segments of lengths \( 4 \) and \( 13 \).
We need to calculate \( x \):
\[
x = \sqrt{4 \cdot 13}
\]
First, multiply the two segments:
\[
4 \cdot 13 = 52
\]
Now calculate the square root:
\[
x = \sqrt{52}
\]
To round it to the nearest tenth, we first simplify \( \sqrt{52} \):
\[
\sqrt{52} = \sqrt{4 \cdot 13} = 2\sqrt{13}
\]
Now we compute \( \sqrt{13} \) which is approximately \( 3.605551275 \):
\[
2\sqrt{13} \approx 2 \cdot 3.605551275 \approx 7.21110255
\]
Rounded to the nearest tenth, we get:
\[
x \approx 7.2
\]
Thus, the value of \( x \) is:
\[
\boxed{7.2}
\]
In a right triangle, if a line segment from the right angle to the hypotenuse divides it into segments of lengths \( a \) and \( b \), the length of the line segment (in this case \( x \)) is given by the geometric mean of the two segments:
\[
x = \sqrt{a \cdot b}
\]
From your description, the hypotenuse is divided into two segments of lengths \( 4 \) and \( 13 \).
We need to calculate \( x \):
\[
x = \sqrt{4 \cdot 13}
\]
First, multiply the two segments:
\[
4 \cdot 13 = 52
\]
Now calculate the square root:
\[
x = \sqrt{52}
\]
To round it to the nearest tenth, we first simplify \( \sqrt{52} \):
\[
\sqrt{52} = \sqrt{4 \cdot 13} = 2\sqrt{13}
\]
Now we compute \( \sqrt{13} \) which is approximately \( 3.605551275 \):
\[
2\sqrt{13} \approx 2 \cdot 3.605551275 \approx 7.21110255
\]
Rounded to the nearest tenth, we get:
\[
x \approx 7.2
\]
Thus, the value of \( x \) is:
\[
\boxed{7.2}
\]
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