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the heat how fast the particles are moving
yes, weight plays a role in how fast an object can fall
When falling to the ground (or even just in the air), the acceleration of an object depends on the gravitational pull of the object it is falling towards. Here on earth, all things fall relative to the earth which causes an acceleration of 9.81 m/s^2
It will fall just as fast as an object of any other mass - assuming that air resistance is negligible. That is to say, if an object has a lot of surface area, it will fall slower due to air resistance.
32 ft per second squared- However, due to air resistance, the final speed will top out at about 250 mph for a streamlined object.
the heat how fast the particles are moving
Not true. An object can fall back to earth, orbit (circle) the earth, or- if moving fast enough, leave the orbit of the earth and go elsewhere. We have sent probes to other planets- they are not circling the earth.
The force between the earth and an object on its surface is about 6 times as great as the force between the moon and the same object on its surface.For every 100 pounds of weight that the object has on earth, the same object weighs about 16 pounds on the moon.Objects also fall about 1/6th as fast on the moon as they fall on earth. That's another subject for discussion.
yes, weight plays a role in how fast an object can fall
9.6 m/sec2.
When falling to the ground (or even just in the air), the acceleration of an object depends on the gravitational pull of the object it is falling towards. Here on earth, all things fall relative to the earth which causes an acceleration of 9.81 m/s^2
They don't fall because they're travelling too fast to fall. An orbit is technically a fall. An object orbits when it falls at the same rate as its forward movement, so while it's falling toward the earth, the earth is falling away from it below.
It will fall just as fast as an object of any other mass - assuming that air resistance is negligible. That is to say, if an object has a lot of surface area, it will fall slower due to air resistance.
They do fall. But they're traveling fast enough so that the surface of the Earth falls away from them as fast as they are falling. Same thing that keeps the Earth from falling into the sun.
Because it moves fast. A satellite will, in fact, continuously "fall" (be accelerated) towards Earth, meaning that it changes its direction. Because it moves fast. A satellite will, in fact, continuously "fall" (be accelerated) towards Earth, meaning that it changes its direction. Because it moves fast. A satellite will, in fact, continuously "fall" (be accelerated) towards Earth, meaning that it changes its direction. Because it moves fast. A satellite will, in fact, continuously "fall" (be accelerated) towards Earth, meaning that it changes its direction.
It is a satellite.
The Earth does not fall into the sun because it is moving fast enough around it. Imagine a weight on the end of a string like a conker, with the weight being the earth, and where you hold the string being the sun. If you swing it around fast enough, the weight spins in circles and does not go near your hand, but if you swing it slowly, the weight will fall in. So because the earth is spinning fast enough around the sun, it does not fall in.