This problem involves finding the vertical height of a kite using the length of the string and the angle it makes with the ground. We can model this situation using a right-angled triangle.
We use the sine trigonometric function, which relates the angle, the opposite side (height), and the hypotenuse (string length).
The formula is:
$ \text{Height} = \text{String Length} \times \sin(\text{Angle}) $
Given:
Calculation:
$ h = L \times \sin(\theta) $
$ h = 24.4 \text{ m} \times \sin(30^\circ) $
We know that $ \sin(30^\circ) = 0.5 $. Therefore:
$ h = 24.4 \text{ m} \times 0.5 $
$ h = 12.2 \text{ m} $
The height of the kite from the ground is 12.2 m.
If x is the distance of P from the bottom of the pillar, then consider the following statements :
1. x can take two values which are in the ratio 1 : 3
2. x can be equal to the height of the flagstaff
Which of the statements given above is/are correct?
What is a possible value of tan θ ?
A vertical tower standing on a levelled field is mounted with a vertical flag staff of length 3 m. From a point on the field, the angles of elevation of the bottom and tip of the flag staff are 30° and 45° respectively. Which one of the following gives the best approximation to the height of the tower?
Two poles are 10 m and 20 m high. The line joining their tops makes an angle of 15° with the horizontal. The distance between the poles is approximately equal to
The angle of elevation of the top of a tower from a point 20 m away from its base is 45 °. What is the height of the tower?