To clarify the concepts of gravitational potential and gravitational potential energy:
Gravitational Potential:Gravitational potential (𝑉V) at a point in a gravitational field is a scalar quantity that represents the gravitational potential energy per unit mass at that point. The gravitational potential 𝑉V at a distance 𝑟r from a mass 𝑀M is given by: 𝑉=−𝐺𝑀𝑟V=−rGM Here, 𝐺G is the gravitational constant, 𝑀M is the mass creating the gravitational field, 𝑟r is the distance from the mass, and the negative sign indicates that gravitational potential is attractive (potential energy is released when objects move closer together).
Gravitational Potential Energy:Gravitational potential energy (𝑈U) is the energy associated with the gravitational force between two objects with masses 𝑚1m1 and 𝑚2m2 separated by a distance 𝑟r. The gravitational potential energy 𝑈U between two masses 𝑚1m1 and 𝑚2m2 separated by a distance 𝑟r is given by: 𝑈=−𝐺𝑚1𝑚2𝑟U=−rGm1m2 Gravitational potential energy is the work required to bring the masses from an infinite separation to a distance 𝑟r apart under the influence of gravity.
Relationship between Gravitational Potential and Gravitational Potential Energy:Gravitational potential (𝑉V) is related to gravitational potential energy (𝑈U) per unit mass. The relationship can be expressed as: 𝑉=𝑈𝑚V=mU Therefore, gravitational potential energy (𝑈U) is equal to the product of gravitational potential (𝑉V) and the mass (𝑚m): 𝑈=𝑚𝑉U=mV Gravitational potential (𝑉V) is inversely proportional to distance 𝑟r from the mass 𝑀M, following the equation 𝑉=−𝐺𝑀𝑟V=−rGM.
In summary:
Gravitational potential (𝑉V) is the gravitational potential energy per unit mass at a point in a gravitational field, expressed as 𝑉=−𝐺𝑀𝑟V=−rGM.
Gravitational potential energy (𝑈U) is the energy associated with the gravitational force between two masses, expressed as 𝑈=−𝐺𝑚1𝑚2𝑟U=−rGm1m2.
Gravitational potential (𝑉V) is inversely proportional to distance 𝑟r from the mass 𝑀M, and it represents the scalar field in a gravitational field, while gravitational potential energy (𝑈U) is the work done in moving masses under the influence of gravity.
Gravitational potential energy at large distances is directly proportional to the masses and inversely proportional to the distance between them. The gravitational potential energy increases as increases. So h is proportional to ΔU., where the distance is inversely proportional to the potential energy. Gravitational potential energy at large distances is directly proportional to the masses and inversely proportional to the distance between them. The gravitational potential energy increases as increases. The magnitude of the gravitational force between two bodies is inversely proportional to the square of the distance between them. Gravitational force and distance are inversely proportional; as the distance between two objects increases, the gravitational force decreases. Gravitational Potential is equal to the potential energy of the unit mass kept at that point. Gravitational Potential Energy is defined as the energy stored in an object that is held in a vertical position due to the force of gravity working on it to pull it down. Gravitational energy is the potential energy associated with gravitational force, as work is required to elevate objects against Earth's gravity. The potential energy due to elevated positions is called gravitational potential energy, and is evidenced by water in an elevated reservoir or kept behind a dam. The relationship can be expressed as: 𝑉=𝑈𝑚V=mUTherefore, gravitational potential energy (𝑈U) is equal to the product of gravitational potential (𝑉V) and the mass (𝑚m): 𝑈=𝑚𝑉U=mV Gravitational potential (𝑉V) is inversely proportional to distance 𝑟r from the mass 𝑀M, following the equation 𝑉=−𝐺𝑀𝑟V=−rGM. Thus, the gravitational potential energy = gravitational potential at a point x mass of the body at that point, where G is universal gravitation constant and M is the mass of the earth and r is the distance of the body from the centre of the earth.