Relative gravitational potential energy.
U = m g h Where U is Gravitational Potential Energy (measured in Joules) m is Mass (measured in kilograms) g is Gravitational Acceleration (~9.8 meters/second2) h is height (measured in meters)
Mostly it is not used every day.
PE = mgh gravitational potential energy = mass x gravity x height The corresponding SI units are: joules = kg x 9.8 N/m x meters (Gravity is 9.8 N/m, equivalent to 9.8 m/s2.)
Prime example of radiation in our every day life is the heat we get from the sun (mostly radiation heat)
gravitational potential energy
Gravitational energy is used in various ways, including hydroelectric power generation (using the gravitational potential energy of water), space exploration (using gravity assists), and in certain forms of energy storage systems (such as gravitational potential energy storage).
The joule (J) is the SI unit used to express gravitational potential energy.
Gravitational potential energy is typically measured in joules (J) in the International System of Units (SI).
there are various types of energy that we use in day to day lives. for example chemical energy is used by our body that we obtain from eating food. kinetic energy is used by cars to move and chemical energy is used by the fuel of the car to move forward. in a plane kinetic energy is used to make gravitational potential energy and sound energy. almost every type of energy conversion results in energy loss in the form of sound or heat
An example of converting gravitational energy into electrical energy is using a hydroelectric dam. Water stored at a higher elevation has gravitational potential energy, which is converted into kinetic energy as the water flows down through turbines in the dam. This kinetic energy is then used to generate electricity through a generator.
Gravitational energy is used in various ways in daily life, such as generating hydroelectric power through water dams, allowing objects to fall to the ground and generate kinetic energy, and enabling us to walk or climb stairs by overcoming the force of gravity. Additionally, gravitational energy plays a role in keeping celestial bodies in orbit around each other in the universe.
Gravitational energy is generally considered a nonrenewable source because it is derived from the position and mass of objects in a gravitational field (such as Earth's gravity). Once this energy is used, it cannot be easily replenished on a human timescale.
Relative gravitational potential energy.
Examples of potential energy in everyday life include a stretched rubber band (elastic potential energy), water stored behind a dam (gravitational potential energy), and compressed springs in a clock (mechanical potential energy).
Gravitational energy is considered nonrenewable because it is primarily generated from the gravitational force between massive objects, such as celestial bodies like planets and stars. Once this energy is converted or used up, it cannot be easily replenished.
Gravitational potential energy is converted into kinetic energy as a person falls from a building. As the person falls, the potential energy decreases while the kinetic energy increases due to the acceleration of gravity.