# Relationship between temperature and volume equation

### Ideal Gas Law: Volume & Temperature Relationship | Owlcation

This equation is useful for pressure-temperature calculations for a confined gas at The relationship between the volume and temperature of a given amount of . The pressure, volume, and temperature of most gases can be described with simple mathematical And yet someone had to notice these relationships and write them down. . "I put the numbers into the equation and I got the right answer. To understand the relationships among pressure, temperature, volume, and the of Equation by V instead of P gives a similar relationship between P and.

### Gas Laws – The Physics Hypertextbook

You can certainly try to use them, but what happens when your temperature goes below zero? Suddenly you may have a calculation that gives you an impossible negative volume.

No worries though, science is hard at work trying to figure out how to prove the existence of matter that has molecules. The Kelvin scale may not have negative numbers, but it certainly has a zero. Trust me, I Googled it before writing this.

If this is true, then the volume of the gas is zero. A volume of zero means we have zero molecules. This just makes zero sense!

## Ideal Gas Law: Volume & Temperature Relationship

There are a few answers to this problem. The ideal gas law breaks down at the lowest temperatures, making it null and void at absolute zero Since ideal gasses themselves are only theoretical, then we can say that an ideal gas at any pressure has a volume of zero when the temperature is absolute-zero on the Kelvin scale. Since zero is nothing, then it still works. A gas with zero volume will obviously have no temperature, and vice versa. The formula tells us simply that the gas we are measuring just The work done pushing the piston transforms into an increase in the internal energy and thus an increase in the temperature of the air molecules within the pump.

People familiar with hand bicycle pumps will attest to the fact that they get hot after use. Likewise, when a gas is allowed to expanded into a region of reduced pressure it does work on its surroundings.

### Gas laws - Wikipedia

The energy to do this work comes from the internal energy of the gas and so the temperature of the gas drops. You can experience this yourself without the aid of any apparatus other than your mouth.

Purse your lips so that your mouth has only a tiny opening to the outside and blow hard. During a "fast" process like the ones just described, pressure and volume are changing so rapidly that heat doesn't have enough time to get into or out of the gas to keep the temperature constant. Such a transformation that takes place without any flow of heat is said to be adiabatic.

Let's try another kitchen experiment. Bread dough before and after baking. Increasing the temperature of bread dough increases its volume. Do try this experiment at home. Yeast are tiny microorganisms. They are quite possibly the first domesticated animals and, much like dogs and horses, yeast have been bred for different purposes.

Just as we have guard dogs, lap dogs, and hunting dog; draft horses, race horses, and war horses; we also have brewer's yeast, champagne yeast, and bread yeast. Bread yeast have been selectively bred to eat sugar and burp carbon dioxide CO2.

When wheat flour and water are mixed together and kneaded, the protein molecules are mashed and stretched until they line up neatly to form a substance called gluten that, like chewing gum, is both elastic and plastic.

Let this special matrix sit and the the CO2 vented from the yeast get trapped in thousands of tiny resilient, stretchy pockets.

## 6.3: Relationships among Pressure, Temperature, Volume, and Amount

As this process continues these tiny pockets expand, which causes the volume of the dough to expand or rise in a process called proofing. We now have a fluffy gummy blob ready for the oven. While there the dough expands again, but his time it's not due to the action of microorganisms they all die around the boiling point of water.

This time it's the heat, or rather the temperature. This domestic example illustrates quite nicely a fundamental property of gases.