There's a more scientific way to explain it but heres a simple one; If you have a balloon filled with helium where does it want to go? Up because its lighter than air so earths gravity is having a lesser effect on it. SO if its not in the confines of the balloon it will keep going until it reaches the outer edges of the atmosphere, at this point it will slowly 'leak' off into space and it will do so first as its lighter than most other gases floating around in the upper atmosphere
Payload weight
Water leaves Earth's surface and enters the atmosphere through processes such as evaporation from oceans, lakes, and rivers, as well as transpiration from plants. Additionally, water is released into the atmosphere through sublimation from snow and ice.
The main factor in determining the amount of thrust a rocket requires to leave the Earth's atmosphere is the mass of the rocket. The heavier the rocket, the more thrust is needed to overcome Earth's gravity and propel it into space.
hi,this is because you leave the earths atmosphere and usaly from earth once you leave the earth in the atmosphere it gets very cold.this must happen from the opposite from the sun so its like this.
The process by which water leaves the hydrosphere and enters the atmosphere is called evaporation. This occurs when water from bodies of water or moist surfaces, such as soil, is heated by the sun and changes into water vapor, rising into the atmosphere.
In march 14 1968
No, a hot air balloon cannot leave Earth's atmosphere. Hot air balloons rely on the Earth's atmosphere to provide lift for their flight. They are designed to operate within the troposphere, the lowest layer of Earth's atmosphere.
A single proton was most likely removed from the helium atom to result in an atom of hydrogen. Helium typically has two protons, so removing one proton would leave one, transforming it into hydrogen, which has one proton.
The first man-made object to leave Earth's atmosphere was the V-2 rocket launched by Germany on October 3, 1942.
No. However, some water vapor in the upper atmosphere is split apart into hydrogen and oxygen by ultraviloet radiation. Some of this hydrogen leaves the atmosphere. This rate of loss is tiny, however.
If you travel some 12. 5 miles into the sky, you will leave roughly 99 percent of the atmosphere behind. At 30 miles up, the density of the atmosphere is roughly one million times less than at the surface.
Payload weight
Think about a helium filled balloon. You know that it floats in air (which is 80% nitrogen). Light gases (H and He) rise because they are light. The pull of Earth's gravity is greater on heavier nitrogen. So the H and He have less gravitational pull to overcome and escape the Earth's atmosphere much more easily.
The boundary between Earth's atmosphere and outer space is defined by the Kármán line, which is at an altitude of 100 kilometers (62 miles) above sea level. To officially leave Earth's atmosphere and reach space, you would need to travel at least this distance vertically.
The "main sequence" is the region (on the HR diagram) for stars which burn hydrogen-1. Once stars use up most of their hydrogen-1 (and have significant amounts of helium-4), they leave the main sequence.
Yes. The sun is powered by nuclear fusion as it converts hydrogen into helium in its core. This hydrogen will run out in about 5 billion years. It will expand to many times its original size before contracting again and fusing helium. After that it will shed its outer layers and leave behind a small remnant called a white dwarf.
Water leaves Earth's surface and enters the atmosphere through processes such as evaporation from oceans, lakes, and rivers, as well as transpiration from plants. Additionally, water is released into the atmosphere through sublimation from snow and ice.