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Deshaun is looking up at a flag that is 50 feet away from him at an angle of elevation from ground level of 35° What is the fla...Question
Deshaun is looking up at a flag that is 50 feet away from him at an angle of elevation from ground level of
35° What is the flagpole's height, x, and the distance between Deshaun and the top of the flagpole, y? (1 point)
• x = 71.41 ft. and y = 87.17 ft.
• x = 35.01 ft. and y = 61.04 ft.
• x = 61.04 ft. and y = 35.01 ft.
• x = 35.01 ft. and y = 35.70 ft.
35° What is the flagpole's height, x, and the distance between Deshaun and the top of the flagpole, y? (1 point)
• x = 71.41 ft. and y = 87.17 ft.
• x = 35.01 ft. and y = 61.04 ft.
• x = 61.04 ft. and y = 35.01 ft.
• x = 35.01 ft. and y = 35.70 ft.
Answers
Answered by
GPT-4o mini
To find the height of the flagpole (x) and the distance from Deshaun to the top of the flagpole (y), we can use some trigonometry.
Given:
- Distance from Deshaun to the base of the flagpole = 50 feet
- Angle of elevation = 35°
### Step 1: Find the height of the flagpole (x)
We can use the tangent function, which relates the height of the flagpole to the distance from Deshaun:
\[
\tan(\text{angle}) = \frac{\text{opposite}}{\text{adjacent}}
\]
In this case, the "opposite" side is the height of the flagpole (x) and the "adjacent" side is the distance from Deshaun to the base of the flagpole (50 ft):
\[
\tan(35°) = \frac{x}{50}
\]
To solve for x:
\[
x = 50 \cdot \tan(35°)
\]
Calculating \( \tan(35°) \):
\[
\tan(35°) \approx 0.699
\]
So,
\[
x \approx 50 \cdot 0.699 \approx 34.95 \text{ feet}
\]
### Step 2: Find the distance from Deshaun to the top of the flagpole (y)
To find this, we can use the sine function:
\[
\sin(\text{angle}) = \frac{\text{opposite}}{\text{hypotenuse}}
\]
Here, the hypotenuse is the distance from Deshaun to the top of the flagpole (y) and the opposite remains x.
Thus,
\[
\sin(35°) = \frac{x}{y}
\]
We can rearrange this to solve for y:
\[
y = \frac{x}{\sin(35°)}
\]
Calculating \( \sin(35°) \):
\[
\sin(35°) \approx 0.5736
\]
Substituting the value of x:
\[
y \approx \frac{34.95}{0.5736} \approx 61.00 \text{ feet}
\]
### Summary of Results
The calculations yield:
- Height of the flagpole \( x \approx 34.95 \text{ feet} \)
- Distance to the top of the flagpole \( y \approx 61.00 \text{ feet} \)
### Conclusion
The closest option that matches our calculations is:
**x = 35.01 ft. and y = 61.04 ft.**
Given:
- Distance from Deshaun to the base of the flagpole = 50 feet
- Angle of elevation = 35°
### Step 1: Find the height of the flagpole (x)
We can use the tangent function, which relates the height of the flagpole to the distance from Deshaun:
\[
\tan(\text{angle}) = \frac{\text{opposite}}{\text{adjacent}}
\]
In this case, the "opposite" side is the height of the flagpole (x) and the "adjacent" side is the distance from Deshaun to the base of the flagpole (50 ft):
\[
\tan(35°) = \frac{x}{50}
\]
To solve for x:
\[
x = 50 \cdot \tan(35°)
\]
Calculating \( \tan(35°) \):
\[
\tan(35°) \approx 0.699
\]
So,
\[
x \approx 50 \cdot 0.699 \approx 34.95 \text{ feet}
\]
### Step 2: Find the distance from Deshaun to the top of the flagpole (y)
To find this, we can use the sine function:
\[
\sin(\text{angle}) = \frac{\text{opposite}}{\text{hypotenuse}}
\]
Here, the hypotenuse is the distance from Deshaun to the top of the flagpole (y) and the opposite remains x.
Thus,
\[
\sin(35°) = \frac{x}{y}
\]
We can rearrange this to solve for y:
\[
y = \frac{x}{\sin(35°)}
\]
Calculating \( \sin(35°) \):
\[
\sin(35°) \approx 0.5736
\]
Substituting the value of x:
\[
y \approx \frac{34.95}{0.5736} \approx 61.00 \text{ feet}
\]
### Summary of Results
The calculations yield:
- Height of the flagpole \( x \approx 34.95 \text{ feet} \)
- Distance to the top of the flagpole \( y \approx 61.00 \text{ feet} \)
### Conclusion
The closest option that matches our calculations is:
**x = 35.01 ft. and y = 61.04 ft.**
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