1second
A pebble is dropped from the top of a 144-foot building. The height of the pebble h after t seconds is given by the equation h=−16t2+144 . How long after the pebble is dropped will it hit the ground?Interpretationa) Which variable represents the height of the pebble, and in what units?b) Which variable represents the time in the air, and in what units?c) What equation relates the height of the object to its time in the air?d) What type of equation is this?e) What are you asked to determine?
i penny is 1 out of 100 cents, therefore it is .01
1) it depends how high up you are 2)which coin (e.g. 1p 2p 10p 20p 50p £1 and so on) 3)it depends which one you drop first as you can see there are many answers to this question but i would say the coin
Drop caps generally look better if you decrease the line height of the first letter.
84 inches round tablecloth gives a drop of 12 inches for 60 inch round table. If you want the drop up to the ground,120 inches round tablecloth is perfect fit. (above tablecloth sizes is applicable only to the std height table 29 inches)
The penny drop a height after 1 second penny is on the ground
The hypothesis of the penny drop experiment is that the design of the container, the height from which the penny is dropped, and the amount of water in the container will affect whether the penny lands heads up or heads down.
It depends on what height you drop it from.
There are many factors that can affect the time for these objects to drop. The height at which each object is dropped is a factor since the height is proportional to time. if the height at which these objects are dropped are the same, then the time for them to drop to the floor is the same. Since the acceleration due to gravity at sea level is 9.81 m/s^2 for all objects no matter the mass, both objects will accelerate at the same rate which means they will reach the floor at the same rate. All in all, both the pencil and the penny will hit the ground at the same time.
The height of the tower is approximately 118.33 meters. This is calculated using the formula h = (1/2) * g * t^2, where h is the height of the tower, g is the acceleration due to gravity (9.81 m/s^2), and t is the time taken for the penny to fall (4.82 seconds).
It is quite obvious, it will just hit the ground. The force depending on the height you dropped it from. For example: If you drop it from a high height it may shatter or it may land with more pressure. If you drop it from a low height it will simply drop with hardly any pressure.
When an object is dropped from a certain height, the time it takes to reach the ground is independent of the height (assuming no air resistance). Therefore, whether you drop the object from three times the initial height or the original height, it will still take the same time (T) to reach the ground.
An object will drop to the ground if it is released from a height due to the force of gravity pulling it downwards.
If a penny and a text book were dropped in a vacuum then they will both hit the ground at the same time. This refers to Newton's laws. If they are dropped at the same time on earth then the text book would hit the ground first.
BB drop refers to the vertical distance between the bottom bracket and an imaginary line drawn between the two wheel axles. BB height, on the other hand, is the distance from the bottom bracket to the ground. In bicycle geometry, BB drop affects handling and stability, while BB height impacts pedal clearance and ground clearance.
-- Take a heavy object and a stopwatch. -- Start the timer as you drop the object from the unknown height. -- Stop the timer when the object hits the ground. -- Read the time off the watch, in seconds. Square it. (Multiply it by itself.) -- Multiply that result by 16.1 . -- Now you have the distance the object fell, in feet.
because it wants to be low enough to give a blowy