Atmosphere
gas is fart and oxygen is for breathing.
Wind blows from high-pressure areas to low-pressure areas. It does this simply because nature is trying to restore a balance between the different pressure areas.
a force is a push or pull and pressure is a a push
i do't no
When two masses that have a difference in air pressure meets they will create a storm front. When the differences in air pressure between the two masses increase the severity of the storm created will intensify.
Wind is primarily caused by differences in air pressure. When there is a variation in air pressure between two areas, wind is generated as air moves from high pressure to low pressure to equalize the pressure difference.
Pressure differences in Earth's atmosphere create areas of high and low pressure. Air flows from high pressure to low pressure, creating wind. The greater the pressure difference between two areas, the stronger the resulting winds will be.
phototsynthesis is for plants with a reaction that takes place- carbon dioxide + water= oxygen + glucose whilst breathing is oxygen+ glucose= carbon dioxide and water
Winds start to blow when there are differences in air pressure between two regions. These pressure differences cause air to move from areas of higher pressure to areas of lower pressure, creating wind. Temperature can play a role in creating these pressure differences, but it is not the sole factor in wind formation.
The pleural cavity pressure is a negative pressure within the space between the lungs and the chest wall, which helps to maintain the expansion of the lungs during breathing. This negative pressure is created by the opposing forces of the lung's natural elastic recoil and the chest wall's tendency to pull outwards. A disruption in this pressure can lead to breathing difficulties.
barometer is used to measuring atmospheric pressure. manometer is used to measuring the pressure of gases.
Air goes into or out of the lungs due to differential pressure. On inhalation, the pressure within the lungs is below atmospheric, so outside air rushes in. On exhalation, the pressure within the lungs is above atmopheric, so inside air rushes out. When you stop breathing for the moment at the end of exhalation, or when you transition from inhalation to exhalation at the end of inhalation, there is no air flow, because there is no differential pressure. Assuming that you do not close your larynx, then, when the lungs are at rest, the air pressure in the lungs is the same as atmospheric, and this occurs twice in each complete breathing cycle.