PE = mgh = mass x gravity x height. In SI units , height in metres, mass in kilograms and gravitational pull = 9.81 ms-2..
So a 100 kg man at 1km high would have a PE of 9.81 x 100 x 1 x 1000 = 981,000 ms-2 x m x kg (Joules) = 981 kJoules
The higher above the ground an object is, the greater its potential energy.
It depends on the circumstances but usually such energy is referred to as potential energy. For example your position in a gravitational field may determine the gravitational potential energy. Likewise your position in a spring system may determine the potential energy of the spring.
potential energy it is directly proportional to height of object above ground
Potential Energy
If using the formula U=mgh, then potential energy increases when the height above the ground increases.
Height above the ground, and mass of the object itself.
Energy which is a result of an object's height above the earth is potential energy.
-- the object's mass -- its height above some reference level
The two variables that determine gravitational potential energy are height above earths surface mass (also air resistance may come into play but in physics friction and air resistance are usually ignored and)
Potential Energy
The higher above the ground an object is, the greater its potential energy.
It depends on the circumstances but usually such energy is referred to as potential energy. For example your position in a gravitational field may determine the gravitational potential energy. Likewise your position in a spring system may determine the potential energy of the spring.
potential energy it is directly proportional to height of object above ground
Potential Energy
If using the formula U=mgh, then potential energy increases when the height above the ground increases.
The height of an object above a reference point is its potential energy with reference to that point.
Gravitational potential energy - it depends on the distance from the centre of gravity, so on Earth it depends on the height above the Earth's surface