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Any object that is above the chosen reference level has gravitational potential energy. If your chosen reference level is the ground level, a book on the table, or you yourself if you are standing rather than lying on the floor, have potential energy.
Potential gravitational energy is pretty theoretic, but exists as potential. So a ball sitting on the floor has little to no potential energy as it is as low as possible, but put that ball on a table, its potential energy increases. So the answer is to place things higher, on a surface of a sort. Mass and height
The cat's gravitational potential energy relative to the floor isEp = m.g.hEp = (the cat's mass) x (gravity) x (the height of the cat's center of mass above the floor).Ep [=] Jmass,m [=] kggravity, g = 9.81 m/s2height, h [=] m
Sure. When a 6-kg bowling ball is resting on a shelf that's 2 meters off the floor, it has 12 joules of gravitational potential energy referenced to the floor.
Potential energy always depends on the reference level (it must be specified in relation to something). If you use the ground as your reference level (as is usual), then height = 0, so the potential energy is also zero.
A roller coaster on the top of the ride Book on top of bookshelf Apple on top of table
The one that is at the greatest height above the floor level.
Any object that is above the chosen reference level has gravitational potential energy. If your chosen reference level is the ground level, a book on the table, or you yourself if you are standing rather than lying on the floor, have potential energy.
Potential gravitational energy is pretty theoretic, but exists as potential. So a ball sitting on the floor has little to no potential energy as it is as low as possible, but put that ball on a table, its potential energy increases. So the answer is to place things higher, on a surface of a sort. Mass and height
Measure the height of the subsequent bounces, and compare gravitational potential energy.
The cat's gravitational potential energy relative to the floor isEp = m.g.hEp = (the cat's mass) x (gravity) x (the height of the cat's center of mass above the floor).Ep [=] Jmass,m [=] kggravity, g = 9.81 m/s2height, h [=] m
Sure. When a 6-kg bowling ball is resting on a shelf that's 2 meters off the floor, it has 12 joules of gravitational potential energy referenced to the floor.
Potential energy always depends on the reference level (it must be specified in relation to something). If you use the ground as your reference level (as is usual), then height = 0, so the potential energy is also zero.
Gravitational force is most commonly associated with potential energy.Whenever we lift an object (move it further from the earth's center), like taking it from the bottom of a hill to the top, or taking it from the floor and placing it on a shelf, table, or chair; we increase the potential energy of the object.
Look at the formula for gravitational potential energy, which is mgh. If the vases have different masses, they can have different amounts of gravitational potential energy, even if their height above the ground (or another chosen reference level) is the same.
Just about as much as it had potential energy before it started falling - since most of the potential energy will be converted into kinetic energy. The exact amount depends from how high it falls.
A book, no matter where it sits, is an organized and bound assembly of paper with information stored on it. The book has some mass, and like any mass, its gravitational potential energy relative to the floor can be defined in terms of its mass and its distance above the floor.