I am not familiar with the terms ''Gauge Pressure'' and ''Absolute Pressure''. Can you make it more simple..TSny said:
Sorry, I do not understand..TSny said:
1) 0 atmosphereTSny said:
No. You have forgotten that the surface of the lake is exposed to the atmosphere. So, the pressure at the surface is not 0.Muhammad Danish said:
It should be 1 too?TSny said:
Right. So, what are the answers to the three questions of post #8?Muhammad Danish said:
1) 1 atmosphereTSny said:
Yes.Muhammad Danish said:
Alright, Now how will we connect these pressures with volumes?TSny said:
I have studied P1V1 = P2V2TSny said:
OK. That's a special case of the ideal gas law when the temperatures in states 1 and 2 are the same. The equation P1V1 = P2V2 is called "Boyle's law" as mentioned by @patric44Muhammad Danish said:
By using the Boyle's Law, the answer is 2 cm3. Is it correct?TSny said:
Yes.Muhammad Danish said:
Thanks a lot for helping me!TSny said:
Thanks.patric44 said:
Pressure and volume have an inverse relationship in liquids. This means that as pressure increases, the volume of the liquid decreases and vice versa. This is known as Boyle's Law.
As pressure increases, the density of liquids also increases. This is because the increased pressure causes the molecules to be more tightly packed together, resulting in a higher density.
Pressure in liquids is commonly measured in units of Pascal (Pa) or pounds per square inch (psi). In scientific experiments, a device called a manometer is often used to measure pressure.
Unlike gases, liquids are relatively incompressible, meaning that their volume does not change significantly with changes in pressure. This is due to the strong intermolecular forces between liquid molecules.
As pressure increases, the boiling point of liquids also increases. This is because the increased pressure makes it more difficult for the liquid molecules to escape into the gas phase, requiring a higher temperature to reach the boiling point.
