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One foot of water at 4 degrees Celsius is equivalent to 816.2 feet of air at 15 degrees C.

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16y ago

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What is relative humidity a ratio of?

Relative humidity is the ratio of the partial pressure of water vapour to the saturation vapour pressure of water at the same temperature. Relative humidity depends on temperature and the pressure. Very roughly speaking, it is a ratio of the amount of water vapour in the air compared to the total amount of water vapour that it possible for that air to contain.


What is the recommended amount of air pressure that should be in a bladder tank?

The recommended amount of air pressure in a bladder tank is typically around 2 psi below the cut-in pressure of the water pump.


Air weighs less than water would you expect the pressure exerted by water to be greater or less than the pressure exerted by the same amount of air?

water is more dense than air and it has at


What term is given to the amount of moisture in the air?

The term for the amount of moisture in the air is humidity. It is typically expressed as a percentage, with higher values indicating more moisture in the air.


the amount of water in the air compared to the amount the air can hold is called?

relative humidity


Why does only the amount of water vapour change?

Changes in the amount of water vapor in the atmosphere are primarily influenced by temperature and air pressure. As temperature increases, more water can evaporate into the air. Similarly, changes in air pressure can also impact the capacity of the air to hold water vapor. Other factors, such as proximity to bodies of water or vegetation, can also affect the amount of water vapor in the atmosphere.


How to convert air flow into water flow?

If you have the air flow velocity and pressure drop for at least three points, plot the pressure as a function of the velocity; P=av2+bv. Use the trendline plotting function in Excel to get the two constants or solve the simultaneous equations for two of the points. Then convert the constant "a" from air to water by multiplying by the ratio of the water density to the air density, which is around "834". Convert the constant "B" by multiplying by the ratio of the dynamic viscosity of water to air, which is around "52". The equation will generate the pressure "P" and velocity values "v" that would occur if the fluid were water instead of air.


What happens when air is humid?

Humidity (relative) is the amount of water vapor in the air, expressed as a percentage of the maximum amount that the air could hold at the given temperature; the ratio of the actual water vapor pressure to the saturation vapor pressure. So pretty much the air is moist and heavy.


How is humidity related to air pressure?

Humidity is related to air pressure because as the amount of water vapor in the air increases, the air becomes less dense. This decrease in density leads to a decrease in air pressure. Conversely, when the air is dry, it is denser and the air pressure is higher.


What is the optimal amount of air pressure that should be maintained in a water tank?

The optimal amount of air pressure that should be maintained in a water tank is typically around 40-60 pounds per square inch (psi). This range helps ensure proper water flow and pressure throughout the system.


What does it mean for the relative humidity of an air mass to be 70 percent?

Let's do a quick review of some facts about water vapor in air, and then we'll tackle this question. An air mass will have a given temperature and a given pressure. For air of a given temperature and pressure, only a certain amount of water vapor can be "suspended" in that air before it begins to condense and precipitate out (as rain, snow or something else). When the amount of water vapor in the air is at it maximum (for whatever temperature and pressure we cite), that air has 100% of the water vapor in it that it can hold. Any more water vapor and water will condense and precipitate out, as we stated. That's all we need to know to take on this question.When we consider the amount of water vapor in a given air mass, we use a "standard" or and "index" to relate that amount of water vapor to something "fixed" to make our measurement. The reference in this case will be the maximum amount of water vapor that an air mass can hold at that temperature and pressure (whatever they are). In the case of this question, if the relative humidity of an air mass is 70%, that air mass (whatever its temperature and pressure) is holding 70% of the water vapor that it can possibly hold. Note that term we use is relative humidity. The "amount" of humidity in an air mass that has a relative humidity of 70% is 7/10ths (70%) of the amount of water vapor that it can possibly hold altogether. We've compared the amount of water vapor in the air to the maximum amount of vapor that it can hold.While it is true that an air mass may have this or that temperature and pressure, in any given air mass of whatever temperature and pressure, there is some maximum amount of water vapor that it can hold, and when we look at the amount of water vapor in that air mass, we compare it to that maximum amount that it can hold. That's relatively humidity, and when relative humidity reaches 100%, that air is saturated with water vapor and we can expect it to begin to precipitate out in the form of rain or another form of precipitation (depending on temperature and conditions aloft).It might help to note that warmer air and air at higher pressure can hold relatively more water vapor that cooler, less "pressurized" (less dense) air. But whatever the temperature and pressure of an air mass, there is some maximum amount of water vapor that it can hold, and we look at how much is in it, and compare that to the maximum amount, and call the comparison the relative humidity.


What does it mean for the relative humidity of an air mass to be 70?

Let's do a quick review of some facts about water vapor in air, and then we'll tackle this question. An air mass will have a given temperature and a given pressure. For air of a given temperature and pressure, only a certain amount of water vapor can be "suspended" in that air before it begins to condense and precipitate out (as rain, snow or something else). When the amount of water vapor in the air is at it maximum (for whatever temperature and pressure we cite), that air has 100% of the water vapor in it that it can hold. Any more water vapor and water will condense and precipitate out, as we stated. That's all we need to know to take on this question.When we consider the amount of water vapor in a given air mass, we use a "standard" or and "index" to relate that amount of water vapor to something "fixed" to make our measurement. The reference in this case will be the maximum amount of water vapor that an air mass can hold at that temperature and pressure (whatever they are). In the case of this question, if the relative humidity of an air mass is 70%, that air mass (whatever its temperature and pressure) is holding 70% of the water vapor that it can possibly hold. Note that term we use is relative humidity. The "amount" of humidity in an air mass that has a relative humidity of 70% is 7/10ths (70%) of the amount of water vapor that it can possibly hold altogether. We've compared the amount of water vapor in the air to the maximum amount of vapor that it can hold.While it is true that an air mass may have this or that temperature and pressure, in any given air mass of whatever temperature and pressure, there is some maximum amount of water vapor that it can hold, and when we look at the amount of water vapor in that air mass, we compare it to that maximum amount that it can hold. That's relatively humidity, and when relative humidity reaches 100%, that air is saturated with water vapor and we can expect it to begin to precipitate out in the form of rain or another form of precipitation (depending on temperature and conditions aloft).It might help to note that warmer air and air at higher pressure can hold relatively more water vapor that cooler, less "pressurized" (less dense) air. But whatever the temperature and pressure of an air mass, there is some maximum amount of water vapor that it can hold, and we look at how much is in it, and compare that to the maximum amount, and call the comparison the relative humidity.