High-velocity liquid molecules can escape to the atmosphere if they possess enough energy to overcome the intermolecular forces holding them in the liquid state. This typically occurs at the surface of the liquid, where molecules can transition into the gas phase through processes like evaporation. However, for most liquids under normal conditions, only a small fraction of molecules achieve this energy level. In extreme conditions, such as high temperatures, a greater number of high-velocity molecules may escape.
The process is called evaporation. This is when heat from the sun causes water molecules to gain enough energy to escape into the atmosphere as water vapor.
The earth's atmosphere is not hot enough for thermonuclear fusion to take place.
The thermosphere (above 80 km above the Earth's surface) is the hottest layer. The temperature as high as thousands of degrees as the few molecules that are present in the thermosphere receive large amounts of energy from the Sun. However, it would actually feel very cold as very few molecules will hit our skin and transfer enough energy make us feel the heat..
The earths gravity. The more mass a body has, the more gravity, The Earth has enough mass to hold an atmosphere. The Moon, on the other hand, is not massive enough, and so does not have a high enough gravity, which prevents it from holding an atmosphere.
Water molecules at the surface of a body of water gain enough energy from the environment to break free from the liquid phase and become water vapor. These water vapor molecules rise into the atmosphere, contributing to evaporation.
The process is called evaporation. It occurs when the molecules in a liquid gain enough energy to escape into the atmosphere as a gas.
Water from Earth's surface evaporates when it receives enough energy from the sun to break its bonds and change from liquid to vapor. This process happens when the water absorbs heat and its molecules gain enough kinetic energy to escape into the atmosphere. Evaporation is a vital part of the water cycle, where water evaporates from oceans, rivers, lakes, and other bodies of water, and eventually returns to Earth as precipitation.
The process that causes the transition from ocean to atmosphere is called evaporation. This is when water molecules at the ocean surface gain enough energy to break free from liquid form and enter the atmosphere as water vapor.
The energy comes from the Sun, which heats the surface of the water, causing the water molecules to gain enough kinetic energy to break free from the liquid state and evaporate into the atmosphere.
Water has to reach its boiling point and absorb enough energy to break the hydrogen bonds between its molecules. This causes the water molecules to gain enough kinetic energy to overcome the cohesive forces holding them together and escape into the atmosphere as water vapor.
If a planet warms up, the atmosphere would likely expand as the air molecules gain energy and move more vigorously, causing the atmosphere to become thicker. Conversely, if a planet cools off, the atmosphere would likely contract as the air molecules lose energy and slow down, causing the atmosphere to become thinner.
In a liquid, the molecules have enough kinetic energy to move freely over each other.
Inside what? Oxygen is part of the atmosphere. The thermal velocity of its molecules are insufficient to escape earth's gravity (unlike hydrogen molecules which are fast enough).
This process is called evaporation. Water molecules absorb energy from the surroundings and gain enough kinetic energy to escape into the atmosphere in the form of vapor.
This process is called evaporation. Water molecules absorb energy from the sun, gain enough kinetic energy to break free from the liquid phase, and transform into water vapor in the atmosphere.
Water enters the atmosphere from the ocean through evaporation. This is when water molecules at the ocean surface gain enough energy from the sun to break free from the liquid state and become water vapor in the air.