In position A kinetic energy of a particle is 60 J and potential energy is -20 J. In position B, kinetic energy is 100 J and potential energy is 40 J. Then, in moving the particle from A to B

If the kinetic energy of a satellite is 2xx10^(4)J , then its potential energy will be

In simple harmonic motion of a particle, maximum kinetic energy is 40 J and maximum potential energy is 60 J. then

In simple harmonic motion of a particle, maximum kinetic energy is 40 J and maximum potential energy is 60 J. then

At time t , the kinetic energy of a particle is 30.0J and the potential energy of the system to which it belongs is 10.0J . At some later time t_f , the kinetic energy of the particle is 18J , what are the potential energy and the total energy at time t_f ? If the potential energy of the system at time t_3 is 5.00J , are any non-conservative forces acting on the particle? Explain.

At time t , the kinetic energy of a particle is 30.0J and the potential energy of the system to which it belongs is 10.0J . At some later time t_f , the kinetic energy of the particle is 18J , what are the potential energy and the total energy at time t_f ? If the potential energy of the system at time t_3 is 5.00J , are any non-conservative forces acting on the particle? Explain.

A body is thrown up with a kinetic energy 100 J. Find the potential energy at the topmost point.

Maximum kinetic energy of a particle of mass 1 kg in SHM is 8 J. Time period of SHM is 4 s. Maximum potential energy during the motion is 10 J. Then

Maximum kinetic energy of a particle of mass 1 kg in SHM is 8 J. Time period of SHM is 4 s. Maximum potential energy during the motion is 10 J. Then

If A is amplitude of a particle in SHM, its displacement from the mean position when its kinetic energy is thrice that to its potential energy

If A is amplitude of a particle in SHM, its displacement from the mean position when its kinetic energy is thrice that to its potential energy