Mass and energy cause curvature in space-time according to Einstein's theory of general relativity. Objects with mass and energy distort the geometry of space-time around them, affecting the paths that other objects follow in that region. This is why gravity is observed as a force between masses, as objects are attracted towards regions of curved space-time.
Energy and matter cannot be created or destroyed, according to the law of conservation of energy and the law of conservation of mass. They can only change forms or be converted from one to another.
As energy is lost in a closed system, the overall space remains constant based on the conservation of mass and energy principle. However, the distribution of particles and their respective energies within that space may change. This can lead to changes in temperature, pressure, and volume within the system.
The law of conservation of matter and energy states that matter and energy cannot be created or destroyed, only transformed from one form to another. This means that in any chemical reaction or physical process, the total amount of matter and energy remains constant.
Objects like planets, stars, and galaxies use gravitational energy to hold themselves together and maintain their positions in space. This energy is also utilized by objects that are in motion due to gravity, such as satellites orbiting around a planet or a moon orbiting around a planet.
What orbiting man made objects in space are powered with solar energy
Objects in space that can only be viewed from earth becouse of reflected light energy are said to be
objects in space that can only be viewed from earth because of reflected light energy are said to be luminous.
Mass and energy cause curvature in space-time according to Einstein's theory of general relativity. Objects with mass and energy distort the geometry of space-time around them, affecting the paths that other objects follow in that region. This is why gravity is observed as a force between masses, as objects are attracted towards regions of curved space-time.
Energy and matter cannot be created or destroyed, according to the law of conservation of energy and the law of conservation of mass. They can only change forms or be converted from one to another.
If you leave earths gravitational field (sufficiently), objects will have a very negligible gravitational potential energy. You can consider it zero. But what if it were a compressed spring that you brought out into 'deep space'? It would still retain elastic potential energy. A bomb in deep space would still have explosive(?) potential energy. With that said, if you had two or more objects in deep space, they would have gravitational potential energy between the group of them, but not the earth.
Stars, satellites, and something else
hi hi
Illuminated.
No, a physicist studies motion, energy and similar things. An astronomer studies objects in space, though not necessarily the physics of those objects. People who study the physics of objects in space are called astrophysicists.
As energy is lost in a closed system, the overall space remains constant based on the conservation of mass and energy principle. However, the distribution of particles and their respective energies within that space may change. This can lead to changes in temperature, pressure, and volume within the system.
Those would be heating elements such as on stoves and in space heaters.