Because air pressure (and water pressure) decrease the farther you get from the earth's center of gravity.
At high altitudes, such as on Mount Everest there is less air above you. This means that the density and pressure of air decreases as altitude increases. Each intake of air on Mount Everest has only one-third of the gas molecules-including oxygen-that would be present at sea level.
Yes the pressure at 3 Km from sea level is less than the pressure at 1 Km from sea level because air pressure becomes lower as the taken height above sea level increases. This is basically due to there being less weight upon each m^3 of air to press the air together.
Atmospheric pressure is higher at sea level than on a mountaintop. This is because atmospheric pressure decreases with altitude; as you ascend, there is less air above you exerting downward force. Consequently, the air is less dense at higher elevations, resulting in lower pressure.
No.Because,on mount everest, atmospheric pressure is very low than on seashore. So, the vapor pressure required for boiling is low and vapor pressure is directly proportional with temperature.Hence, water will boil at the temperature less than 100C.
There is less air higher in the sky so the pressure is less. At sea level, all the air above a certain space exerts pressure. There's also more air, so the pressure is greater. Like any material, air becomes heavy in large enough quantities.
it is higher up on Mount Everest so it has less pressure than at sea level
The higher you climb the less oxygen there is. At the summit of Mount Everest there is approximately 33% of the oxygen that is available at sea level.
At high altitudes, such as on Mount Everest there is less air above you. This means that the density and pressure of air decreases as altitude increases. Each intake of air on Mount Everest has only one-third of the gas molecules-including oxygen-that would be present at sea level.
The air pressure at the top of Mount Everest is low pressure. At high altitudes, such as on Mount Everest there is less air above you. This means that the density and pressure of air decreases as altitude increases. Each intake of air on Mount Everest has only one-third of the gas molecules-including oxygen-that would be present at sea level.
The summit of Mount Everest has low pressure. At high altitudes, such as on Mount Everest there is less air above you. This means that the density and pressure of air decreases as altitude increases. Each intake of air on Mount Everest has only one-third of the gas molecules-including oxygen-that would be present at sea level.
At high altitudes, such as on Mount Everest there is less air above you. This means that the density and pressure of air decreases as altitude increases. Each intake of air on Mount Everest has only one-third of the gas molecules-including oxygen-that would be present at sea level.
At high altitudes, such as on Mount Everest there is less air above you. This means that the density and pressure of air decreases as altitude increases. Each intake of air on Mount Everest has only one-third of the gas molecules-including oxygen-that would be present at sea level.
why is the atmosheric p ressure on mount Washington less than that in new Orleans
At high altitudes, such as on Mount Everest there is less air above you. This means that the density and pressure of air decreases as altitude increases. Each intake of air on Mount Everest has only one-third of the gas molecules-including oxygen-that would be present at sea level.
At Muree hills the pressure of air is 700 which is less than 760 torr so water boils at 98 degree centigrade and at Mount everest pressure further decreases and water boils at 69 degree centigrade
The higher you climb the less oxygen there is. At the summit of Mount Everest there is approximately 33% of the oxygen that is available at sea level. That is why climbers use bottled oxygen on Mount Everest and other high altitude mountains to help them breathe more easily.
The air pressure on the summit of Mount Everest is about 33% of the air pressure at sea level. This means there is significantly less oxygen available at high altitudes, making it difficult for climbers to breathe and function properly without supplemental oxygen.