CO2 will not be a liquid at room temperature, rather a gas. It is only a liquid when compressed. Actually IF contained at high pressure it will be a liquid at room temperature ...It requires a combination of both pressure and temperature. It is a liquid in CO2 fire extinguishers and when the pressure is released some of it boils, absorbing a large amount of heat energy, more of it is released from the nozzle as a solid which then sublimes to forma gas.
The critical point of CO2 is 304.1K and 72.8 atm. If you're at 25C (298.15K), then CO2 will condense from gas to liquid. If you're above 31C (304.15K), then CO2 will condense from gas to a supercritical fluid. w
As long as the CO2 canister is not being emptied or filled, it will be at the same temperature as the room that it is in. If you actively emptying the canister, the temperature can go drop significantly because of the drop in pressure (see Ideal Gas Law), and it can get hot if you are filling it. In general, if an object is in thermal equilibrium with it's surroundings (true as long you are not changing its temperature or the temperature of the surroundings at a significant rate), the object will be the exact same temperature as the surroundings.
In an adiabatic process, the temperature is increased when it is compressed. There is an increase in internal kinetic energy, and because temperature is related to kinetic energy, it is also increased.
If a thermometer is not present, you can estimate the temperature of CO2 by measuring the pressure inside the container where CO2 is collected. Using the ideal gas law, you can infer the temperature based on the pressure and volume of the gas. This assumes ideal gas behavior and neglects factors like non-ideal behavior or phase changes.
If you compress a gas the temperature increases
CO2 will not be a liquid at room temperature, rather a gas. It is only a liquid when compressed. Actually IF contained at high pressure it will be a liquid at room temperature ...It requires a combination of both pressure and temperature. It is a liquid in CO2 fire extinguishers and when the pressure is released some of it boils, absorbing a large amount of heat energy, more of it is released from the nozzle as a solid which then sublimes to forma gas.
The critical point of CO2 is 304.1K and 72.8 atm. If you're at 25C (298.15K), then CO2 will condense from gas to liquid. If you're above 31C (304.15K), then CO2 will condense from gas to a supercritical fluid. w
Yes. Mostly by the production of CO2.
The temperature and speed remain constant.
Nitrogen can exist as a compressed gas when placed under pressure in a container. At room temperature and normal atmospheric pressure, nitrogen is a colorless and odorless gas.
As long as the CO2 canister is not being emptied or filled, it will be at the same temperature as the room that it is in. If you actively emptying the canister, the temperature can go drop significantly because of the drop in pressure (see Ideal Gas Law), and it can get hot if you are filling it. In general, if an object is in thermal equilibrium with it's surroundings (true as long you are not changing its temperature or the temperature of the surroundings at a significant rate), the object will be the exact same temperature as the surroundings.
Your cylinder full of gas will weigh more, for it contains the mass of the gas. Some gases, when compressed, such as CO2, are in liquid form, and quite heavy.
In an adiabatic process, the temperature is increased when it is compressed. There is an increase in internal kinetic energy, and because temperature is related to kinetic energy, it is also increased.
If a thermometer is not present, you can estimate the temperature of CO2 by measuring the pressure inside the container where CO2 is collected. Using the ideal gas law, you can infer the temperature based on the pressure and volume of the gas. This assumes ideal gas behavior and neglects factors like non-ideal behavior or phase changes.
When a gas is compressed, its volume will decrease, its pressure will increase, and its temperature may increase.
To calculate the volume of compressed air, use the ideal gas law equation: PV = nRT, where P is the pressure of the compressed air, V is the volume, n is the number of moles of gas, R is the ideal gas constant, and T is the temperature. This formula allows you to calculate the volume of the compressed air if you know the pressure, temperature, and quantity of air.