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Original Question
Kyra is standing 50 feet from the kite she is flying. The string of the kite forms an angle of 27° with the ground. How high in...Asked by hrsdptmsshch (supernatural)
Kyra is standing 50 feet from the kite she is flying. The string of the kite forms an angle of 27° with the ground. How high in the air is the kite? (1 point)
Responses
32.18 ft.
32.18 ft.
25.48 ft.
25.48 ft.
22.66 ft.
22.66 ft.
98.13 ft.
Responses
32.18 ft.
32.18 ft.
25.48 ft.
25.48 ft.
22.66 ft.
22.66 ft.
98.13 ft.
Answers
There are no human answers yet.
Answered by
GPT-4o mini
To determine how high the kite is in the air, we can use trigonometry. We can create a right triangle where:
- The length of the string is the hypotenuse (let's call it \( h \)).
- The height of the kite forms the opposite side of the angle.
- The distance from Kyra to the point directly below the kite on the ground forms the adjacent side (50 feet).
Using the sine function, we have:
\[
\sin(\theta) = \frac{\text{opposite}}{\text{hypotenuse}}
\]
In our case:
\[
\sin(27°) = \frac{\text{height of the kite}}{h}
\]
Since Kyra is standing 50 feet away from the kite, we can also find the hypotenuse \( h \) using the cosine function:
\[
\cos(27°) = \frac{50 \text{ ft}}{h}
\]
Now we can rearrange this to find \( h \):
\[
h = \frac{50}{\cos(27°)}
\]
Calculating \( \cos(27°) \):
\[
h = \frac{50}{\cos(27°)} \approx \frac{50}{0.8480} \approx 58.9 \text{ ft}
\]
Now, substituting \( h \) back to find the height of the kite:
\[
\sin(27°) = \frac{\text{height}}{58.9}
\]
\[
\text{height} = 58.9 \times \sin(27°)
\]
Calculating \( \sin(27°) \):
\[
\text{height} = 58.9 \times 0.4540 \approx 26.68 \text{ ft}
\]
Since this is not one of the options given, let's go back and use the direct calculation from the 50 feet distance:
Using the triangle:
\[
\text{height} = 50 \times \tan(27°)
\]
Calculating \( \tan(27°) \):
\[
\tan(27°) \approx 0.510
\]
Now:
\[
\text{height} \approx 50 \times 0.510 \approx 25.5 \text{ ft}
\]
So, the height of the kite is approximately 25.48 feet, which corresponds to one of the given options.
Therefore, the answer is:
**25.48 ft.**
- The length of the string is the hypotenuse (let's call it \( h \)).
- The height of the kite forms the opposite side of the angle.
- The distance from Kyra to the point directly below the kite on the ground forms the adjacent side (50 feet).
Using the sine function, we have:
\[
\sin(\theta) = \frac{\text{opposite}}{\text{hypotenuse}}
\]
In our case:
\[
\sin(27°) = \frac{\text{height of the kite}}{h}
\]
Since Kyra is standing 50 feet away from the kite, we can also find the hypotenuse \( h \) using the cosine function:
\[
\cos(27°) = \frac{50 \text{ ft}}{h}
\]
Now we can rearrange this to find \( h \):
\[
h = \frac{50}{\cos(27°)}
\]
Calculating \( \cos(27°) \):
\[
h = \frac{50}{\cos(27°)} \approx \frac{50}{0.8480} \approx 58.9 \text{ ft}
\]
Now, substituting \( h \) back to find the height of the kite:
\[
\sin(27°) = \frac{\text{height}}{58.9}
\]
\[
\text{height} = 58.9 \times \sin(27°)
\]
Calculating \( \sin(27°) \):
\[
\text{height} = 58.9 \times 0.4540 \approx 26.68 \text{ ft}
\]
Since this is not one of the options given, let's go back and use the direct calculation from the 50 feet distance:
Using the triangle:
\[
\text{height} = 50 \times \tan(27°)
\]
Calculating \( \tan(27°) \):
\[
\tan(27°) \approx 0.510
\]
Now:
\[
\text{height} \approx 50 \times 0.510 \approx 25.5 \text{ ft}
\]
So, the height of the kite is approximately 25.48 feet, which corresponds to one of the given options.
Therefore, the answer is:
**25.48 ft.**
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