evaporation and condensation
or just condensation
Atmospheric gases can be liquefied by (i) increasing atmospheric pressure ; and (ii) decreasing temperature. By increasing pressure particles of the gas get compressed. Decreasing temperature reduces kinetic energy.
The primary method used to liquefy atmospheric gases involves alternate and successive stages of compression, cooling and decompression. Let's step through the process in a simple way to get a handle on it. When we compress a gas, that gas is heated by the act of compression. If we put that heated gas through a heat exchanger with, say, water flowing around coils of piping through which the hot gas is passing, the gas will cool down. Next, we'll release the pressure on the gas, and this will cool the gas down even more. By then compressing the gas again, cooling it again, and then releasing the pressure, the released gas will be even colder. A repeated cycle will eventually result in drops of liquid air appearing when the pressure is released following a cooling and decompression cycle. This is a standard method of collecting atmospheric gas in liquid form. A link can be found below for further investigation.
Yes, you can convert the noble gases into liquids. It is possible to liquefy any gas by cooling it enough.
The atmospheric gases carbon dioxide, methane and nitrous oxide are all greenhouse gases that help to heat the Earth.
At low temperatures, ideal gases can liquefy if they are cooled below their critical temperatures. At temperatures below the critical temperature, the gas will condense into a liquid due to the decreased molecular motion and intermolecular forces becoming dominant over kinetic energy.
One method to liquify atmospheric gases is through a process called cryogenic liquefaction. This involves lowering the temperature of the gases to below their critical temperature, causing them to condense into liquid form. This process is commonly used in industry to produce liquid oxygen, nitrogen, and other gases.
Atmospheric gases can be liquefied by (i) increasing atmospheric pressure ; and (ii) decreasing temperature. By increasing pressure particles of the gas get compressed. Decreasing temperature reduces kinetic energy.
The primary method used to liquefy atmospheric gases involves alternate and successive stages of compression, cooling and decompression. Let's step through the process in a simple way to get a handle on it. When we compress a gas, that gas is heated by the act of compression. If we put that heated gas through a heat exchanger with, say, water flowing around coils of piping through which the hot gas is passing, the gas will cool down. Next, we'll release the pressure on the gas, and this will cool the gas down even more. By then compressing the gas again, cooling it again, and then releasing the pressure, the released gas will be even colder. A repeated cycle will eventually result in drops of liquid air appearing when the pressure is released following a cooling and decompression cycle. This is a standard method of collecting atmospheric gas in liquid form. A link can be found below for further investigation.
They are liquefied gases.
Yes, you can convert the noble gases into liquids. It is possible to liquefy any gas by cooling it enough.
By Linde method we can easily liquefy gas, first of all we have apparatus for performing experiment and then by its help we can do this. Two things required for such experiment "low temperature" and second "high pressure"; some gas are not be liquefied like hydrogen and helium because they have high kinetic energy, which means their temperature is increased when the kinetic energy of molecules increases so the distance between the molecules increase so its is impossible to convert them!
The atmospheric gases carbon dioxide, methane and nitrous oxide are all greenhouse gases that help to heat the Earth.
The glass on the greenhouse stops temperature from leaving or entering like the gases do to the earth.The atmospheric gases are called 'greenhouse gases' based on the idea that the gases 'trap' heat like the walls of a greenhouse do
it is hydrogen
At low temperatures, ideal gases can liquefy if they are cooled below their critical temperatures. At temperatures below the critical temperature, the gas will condense into a liquid due to the decreased molecular motion and intermolecular forces becoming dominant over kinetic energy.
Hydrogen, Helium
The lowest atmospheric layer that contains greenhouse gases is the troposphere