Just over 1 second. Gravity moves objects here on Earth at 32 ft per second squared. At the end of the first second it will fall 32 of the 36 ft.
1.5 seconds.
Ignoring air resistance . . .H = 1/2 G t2t = sqrt(2H/G) = sqrt(2 x 363 / 32.2) = 4.75 seconds (rounded)
I assume you hit it up from the ground level as well. From Conservation of Energy, it immediately follows that: * If there is no air resistance, when it hits the ground it will, once again, have a speed of 100 meters per second. * Since under usual circumstances there WILL BE air resistance, its speed will be less than 100 meters per second.
19.6m
An A-Frame
a. 144 feet b. 96 ft/sec.
Ignoring any effects due to air resistance, the speed of the stone is zero at the instant it's dropped, and increases steadily to 78.98 meters per second when it hits the ground. The velocity is directed downward throughout the experiment.
Ignoring air resistance . . .H = 1/2 G t2t = sqrt(2H/G) = sqrt(2 x 363 / 32.2) = 4.75 seconds (rounded)
I assume you hit it up from the ground level as well. From Conservation of Energy, it immediately follows that: * If there is no air resistance, when it hits the ground it will, once again, have a speed of 100 meters per second. * Since under usual circumstances there WILL BE air resistance, its speed will be less than 100 meters per second.
There is no air resistance to keep you from hitting the ground, the density of your body is heavier then the air, causing you to fall quickly into the ground.
Ignoring air resistance, the horizontal component of velocity has no connection with, and no effect on, the vertical component. Two bodies that leave the top of the building simultaneously with the same vertical velocity hit the ground at the same time, regardless of their horizontal velocities or their masses. That's the same as saying that a bullet fired horizontally from a gun and a bullet or a stone dropped from the gun's muzzle at the same instant hit the ground at the same instant. Strange but true.
It depends on the definition of resistance and the definition of ground. If you are referring to resistance as in resistance to electric current, the answer will be different than if you are referencing resistance as in friction. Also, the ground is not consistent. There are many types of "ground." More specification is necessary here in order to receive a sufficient answer.
Building Green - 2006 Breaking Ground 1-1 was released on: USA: 6 October 2006
no. electricity seeks the shortest path with the lowest resistance. An example will be lightning. A tall building offers a lower resistance than air or even moist air in a storm. Hence, the lightning strikes the tall building more likely than it hits the ground surrounding the tall building.
The softball hits the ground first because it is less affected by air resistance.
When you say "time of fall", I'm going to assume you mean "time of hitting the ground".The kinetic energy it has when it hits the ground is exactly the potential energyit had on the roof. (As is our tradition, we're ignoring air resistance.)Potential energy = (mass) x (gravity) x (height)5,000 = (20) x (9.8) x (Height)Height = 5,000 / (20 x 9.8) = 25.51 meters
The Treasure is on the ground where the girls that are ignoring you are
One. Only the bullet's weight. In this case, the bullet would not decelerate and will keep moving at muzzle velocity until it hits the ground.