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As you go down the group of noble gases, the boiling points generally increase. This is due to the increase in molecular weight and London dispersion forces between the heavier atoms. Helium has the lowest boiling point, while radon has the highest boiling point among the noble gases.
Air is made up of 80 percent nitrogen and 20 percent oxygen. The boiling points of these elements are different: oxygen's boiling point is minus 297 degrees Fahrenheit and nitrogen's is minus 320 degrees Fahrenheit
Inert gases, such as nitrogen or argon, are typically extracted from the air using a process called fractional distillation. This process involves cooling and compressing air to separate its components based on their boiling points. Inert gases have higher boiling points than other gases in the air, allowing them to be collected in their pure form.
The boiling points of noble gases increase as you go down the group. This is because the increase in atomic size and London dispersion forces between atoms result in stronger intermolecular forces, requiring higher temperatures to overcome.
At room temperature, water is in a liquid state because it has a high boiling point, as compared to gases that have relatively low boiling points.
The boiling points of noble gases are very low, ranging from -246.1C for helium to -268.9C for radon.
As you go down the group of noble gases, the boiling points generally increase. This is due to the increase in molecular weight and London dispersion forces between the heavier atoms. Helium has the lowest boiling point, while radon has the highest boiling point among the noble gases.
Air is made up of 80 percent nitrogen and 20 percent oxygen. The boiling points of these elements are different: oxygen's boiling point is minus 297 degrees Fahrenheit and nitrogen's is minus 320 degrees Fahrenheit
The noble gases, such as helium and neon, have the lowest boiling and melting points among the elements. These elements are gases at room temperature and have very weak interatomic forces that require little energy to separate them into individual atoms.
Inert gases, such as nitrogen or argon, are typically extracted from the air using a process called fractional distillation. This process involves cooling and compressing air to separate its components based on their boiling points. Inert gases have higher boiling points than other gases in the air, allowing them to be collected in their pure form.
The boiling points of noble gases increase as you go down the group. This is because the increase in atomic size and London dispersion forces between atoms result in stronger intermolecular forces, requiring higher temperatures to overcome.
Air is a mixture; it doesn't have a melting or boiling point. It has a mixture of carbon dioxide, ozone, oxygen, nitrogen, helium, etc. look up those gases separately and you will get answers.
At room temperature, water is in a liquid state because it has a high boiling point, as compared to gases that have relatively low boiling points.
The boiling points of noble gases increase as you go down the group from helium to krypton. This is because the boiling point is influenced by the strength of the London dispersion forces among the atoms, which increases with molecular size. As the atomic size and mass increase down the group, the London dispersion forces also increase, resulting in higher boiling points.
Elements with the highest boiling points are typically found in the group of transition metals and some metalloids. For example, tungsten (W) has one of the highest boiling points at around 5,555°C. These elements often have strong metallic bonds and a dense atomic structure, which contribute to their elevated boiling points. Additionally, some heavy noble gases like radon also exhibit high boiling points, but generally, the trend is seen among the transition metals.
All gases become liquids when cooled to their respective boiling points. At this temperature, the vapor pressure of the gas matches the external pressure, causing the gas to condense into a liquid state.
The trend in boiling points of Noble gas elements increases down the group, from helium to radon. This is because as you move down the group, the atomic size and London dispersion forces also increase, leading to stronger interatomic forces and higher boiling points. Additionally, the increasing number of electrons in the heavier Noble gases results in more polarizable electron clouds, further contributing to the trend.