As the ball falls toward the floor, its potential energy decreases due to gravity pulling it downward while its kinetic energy increases as it gains speed. This exchange between potential and kinetic energy follows the principle of conservation of mechanical energy.
As a ball falls, its potential energy decreases as it converts to kinetic energy. As it moves closer to the ground, its kinetic energy increases at the expense of potential energy.
The mechanical energy of a coconut falling from a tree decreases. As the coconut falls, its potential energy (due to its height) is transformed into kinetic energy (due to its motion). Therefore, the total mechanical energy (potential energy + kinetic energy) decreases as the coconut falls.
As a ball fall downwards, it's velocity continuously increases, therefore the kinetic energy increases. As the height from the ground level decreases, the potential energy decreases. Further, the total mechanical energy remains constant throughout the motion.
As the object falls towards the ground, its gravitational potential energy decreases and is converted to kinetic energy. This means that the kinetic energy of the object increases as it gets closer to the ground.
As an object falls, its potential energy decreases while its kinetic energy increases. The object's speed, or velocity, increases with the conversion of potential energy to kinetic energy. This relationship is described by the law of conservation of energy.
As a ball falls, its potential energy decreases as it converts to kinetic energy. As it moves closer to the ground, its kinetic energy increases at the expense of potential energy.
As a ball fall downwards, it's velocity continuously increases, therefore the kinetic energy increases. As the height from the ground level decreases, the potential energy decreases. Further, the total mechanical energy remains constant throughout the motion.
For example, when an object falls, its potential energy decreases, but its kinetic energy increases, i.e., it falls faster and faster.
The mechanical energy of a coconut falling from a tree decreases. As the coconut falls, its potential energy (due to its height) is transformed into kinetic energy (due to its motion). Therefore, the total mechanical energy (potential energy + kinetic energy) decreases as the coconut falls.
As a ball fall downwards, it's velocity continuously increases, therefore the kinetic energy increases. As the height from the ground level decreases, the potential energy decreases. Further, the total mechanical energy remains constant throughout the motion.
Kinetic energy increases and gravitational potential energy decreases.
As the object falls towards the ground, its gravitational potential energy decreases and is converted to kinetic energy. This means that the kinetic energy of the object increases as it gets closer to the ground.
As an object falls, its potential energy decreases while its kinetic energy increases. The object's speed, or velocity, increases with the conversion of potential energy to kinetic energy. This relationship is described by the law of conservation of energy.
As an object falls, its potential energy decreases and is transformed into kinetic energy. This is due to the force of gravity doing work on the object as it moves downwards. The potential energy is converted into kinetic energy, which increases the object's speed as it falls.
Yes, as an object falls, its potential energy (PE) decreases due to a decrease in height, while its kinetic energy (KE) increases as it gains speed from the pull of gravity. The total mechanical energy of the object (PE + KE) remains constant if we ignore air resistance.
The potential energy of the book decreases as it falls off the table and its height decreases.
As an object freely falls downwards, its speed and kinetic energy increase due to the acceleration of gravity. At the same time, its potential energy decreases as it moves closer to the surface of the Earth.