The Bowling ball will hit the ground fist not because it has more mass but because it is less affected by wind resistance [resistance to its movement through the air] If the effect of wind resistance where [somehow] negated they would hit the ground at the same time.
[The bag of potato chips: Open or closed? Assumed closed for this answer]
Still accelerating til it hits earth. ====================================== The height from which she dropped the ball is irrelevant. In any case, the ball was most likely moving at the greatest speed just as it hit the ground. The answer to the question is: zero.
It will stay with the satellite for a while, in a similar orbit. If the satellite is in low orbit, gradually the object will get away from the satellite, due to "tidal forces" from Earth.
A scale, a car, and a press Walking on Earth Breathing while walking on Earth Bowling
The force of gravity is stronger between larger masses, and weaker between smaller masses. That's why there's more force between you and the Earth than there is between you and a bowling ball, for example.
it moves
The bowling ball will hit the ground fist not because it has more mass but because it is less affected by wind resistance [resistance to its movement through the air] If the effect of wind resistance where [somehow] negated they would hit the ground at the same time. [The bag of potato chips: Open or closed? Assumed closed for this answer]
Inertia and gravity cause a bowling ball to stop on earth.
Ignoring air resistance (which probably is not safe to do) it would impact at a smidge over 18 seconds from when it was released and be traveling about 580 feet per second.
Near the surface of the earth, all objects fall with the same acceleration; after any period of time spent falling, all objects are falling with the same speed, and have fallen the same distance. If there's any difference in falling behavior between two objects, it's the result of air resistance. If they fall through a region where there is no air, a feather and a battleship fall with the same acceleration. If they're dropped side by side, they stay side by side all the way down. This has been known for roughly the past 500 years. Right. The gravitational attraction is bigger, but so is the inertia in the same ratio.
every thing has a gravitational force, the more mass however will increase the force for instance if i dropped a bowling ball it will fall tward the earth rather than the earth falling to it, but if that bowling ball was in space and for some reason there was a marble floating along it would be pulled tward the bowling ball. if you get on youtube sometime there is this seires that steven Hawkins did and he talks about gravity a little. also look up carl segan videos (i like his videos better)
potato
The potato
Still accelerating til it hits earth. ====================================== The height from which she dropped the ball is irrelevant. In any case, the ball was most likely moving at the greatest speed just as it hit the ground. The answer to the question is: zero.
Still accelerating til it hits earth. ====================================== The height from which she dropped the ball is irrelevant. In any case, the ball was most likely moving at the greatest speed just as it hit the ground. The answer to the question is: zero.
A 16 pound bowling ball on Earth would weight approximately 6 pounds on Mercury.
You need to understand that MASS is an intrinsic property of matter, the bowling ball will have the same mass no matter where it is. WEIGHT is the pull of gravity on matter. As gravity is weaker/less on the Moon as compared to Earth, the same size lump of matter (the bowling ball) will weigh less on the Moon as it does on Earth. The problem in understanding this difference happens because as we live on Earth we confused MASS and WEIGHT before we understood the physics. On Earth a 1 Kg mass weighs 1 Kg, however if we take that 1 kg mass to the Moon where gravity is only one third of that on Earth it will only weigh 1/3 Kg. However, there is another property of matter that is related directly to its Mass and that is the energy you need to put in to get it to move (or stop moving) - this is called INERTIA. Weather on the Moon or on the Earth the INERTIA of the bowling ball will remain the same. If you roll it to another person on a horizontal surface on the Moon or on Earth, the person you roll it to will find it just as hard to stop in both places.
You need to understand that MASS is an intrinsic property of matter, the Bowling ball will have the same mass no matter where it is. WEIGHT is the pull of gravity on matter. As gravity is weaker/less on the Moon as compared to Earth, the same size lump of matter (the bowling ball) will weigh less on the Moon as it does on Earth. The problem in understanding this difference happens because as we live on Earth we confused MASS and WEIGHT before we understood the physics. On Earth a 1 Kg mass weighs 1 Kg, however if we take that 1 kg mass to the Moon where gravity is only one third of that on Earth it will only weigh 1/3 Kg. However, there is another property of matter that is related directly to its Mass and that is the energy you need to put in to get it to move (or stop moving) - this is called INERTIA. Weather on the Moon or on the Earth the INERTIA of the bowling ball will remain the same. If you roll it to another person on a horizontal surface on the Moon or on Earth, the person you roll it to will find it just as hard to stop in both places.