Answer:
Horizontal component = 16.8 m/s
Vertical component = 46.0 m/s
Explanation:
If we denote the initial velocity by <em>v</em> and the angle above the horizontal by <em>θ</em>,
the horizontal component of this initial velocity is given by


The vertical component is given by


Answer:
4.5 meters is your Answer goood luck please give 5 star
Explanation:
Explanation:
Resonance: Resonance is the phenomenon which occurs when the applied frequency on the object is equal to its natural frequency.
In the given problem, the singing of an opera singer caused a drinking glass to shatter.
This occurs due to the phenomenon resonance. The applied frequency of the singing of an opera singer on the drinking glass matches with the natural frequency of the drinking glass. It causes a glass to shatter.
It would be A: Have a greater height.
The higher the wave the higher the energy!
Answer:
The distance is
.
Explanation:
Given that,
Time 
The velocity is no more than a 14 % error in the speed of light.
So,
Velocity 
We need to calculate the distance
Using formula of speed


Where, v = speed
d = distance
t = time
Put the value into the formula


We know that,
The one side distance d' is



Hence, The distance is
.