At 273K and 1 ATM, most gases typically exist in the gaseous state. However, the specific gas present will depend on the composition of the system.
You can use the Ideal Gas Law or the Combined Gas Law. PV/T = PV/T ---- left are usually labeled (1) and right (2) to show different conditions left P = unknown, V = 19.6L, T = (273+27)K right P= 760 torr or 1 amt, V = 22.4 L, T = 273K --- all are standard P(19.6L)/300K = 1atm(22.4L)/273K --- solve for P P = (1 atm)(22.4L)(300K)/ [(273K)(19.6L)] do the math --- get the answer.
To find the total pressure of a gas mixture, you simply add the partial pressures of the individual gases. In this case, if one gas has a partial pressure of 1 ATM and another has a partial pressure of 0.89 ATM, the total pressure would be 1 ATM + 0.89 ATM = 1.89 ATM.
This is equivalent to 0.2 atm. (152 mmHg)*(1 atm)/(760 mmHg)=0.2atm
To find the pressure of gas B, you can use Dalton's Law of Partial Pressures, which states that the total pressure is the sum of the partial pressures of individual gases. Given that the total pressure is 1.20 ATM and the partial pressure of gas A is 0.75 ATM, you can calculate the pressure of gas B as follows: Pressure of gas B = Total pressure - Pressure of gas A = 1.20 ATM - 0.75 ATM = 0.45 ATM. Thus, the pressure of gas B is 0.45 ATM.
To determine the pressure of the other gas in a mixture, you need to know the pressure of one of the gases. If you have the pressure of one gas, you can subtract it from the total pressure of 5.7 ATM to find the pressure of the other gas. For example, if one gas has a pressure of 2.0 ATM, then the pressure of the other gas would be 5.7 ATM - 2.0 ATM = 3.7 ATM.
A. An increase in pressure from 2 ATM to 3 ATM will result in a decrease in volume of gas. B. An increase in pressure from 3 ATM to 4 ATM will result in a decrease in volume of gas. C. A decrease in pressure from 4 ATM to 1 ATM will result in an increase in volume of gas. D. An increase in pressure from 1 ATM to 3 ATM will result in a decrease in volume of gas.
You can use the Ideal Gas Law or the Combined Gas Law. PV/T = PV/T ---- left are usually labeled (1) and right (2) to show different conditions left P = unknown, V = 19.6L, T = (273+27)K right P= 760 torr or 1 amt, V = 22.4 L, T = 273K --- all are standard P(19.6L)/300K = 1atm(22.4L)/273K --- solve for P P = (1 atm)(22.4L)(300K)/ [(273K)(19.6L)] do the math --- get the answer.
At 0C and 1 atm, the gas that is best described by the ideal gas law is helium.
To find the total pressure of a gas mixture, you simply add the partial pressures of the individual gases. In this case, if one gas has a partial pressure of 1 ATM and another has a partial pressure of 0.89 ATM, the total pressure would be 1 ATM + 0.89 ATM = 1.89 ATM.
Krypton is a colorless, odorless gas at room temperature.
The total pressure of the mixed gases will be 5 ATM. The partial pressure of each gas will remain the same as their individual pressures before mixing, so the partial pressure for the gas originally at 2 ATM will remain at 2 ATM, and the gas originally at 3 ATM will remain at 3 ATM.
water changes from a gas to a solid to a liquid
Simply convert atm to mm Hg using 1 atm = 760 mm Hg. Thus, 3.1 atm = 3.1x760 = 2356 mm Hg
1.0
1 atm of pressure equals 760 mm Hg, so 2 atm = 1520 mm Hg.
Nitrogen (N2) behaves more ideally at 1 ATM rather than at 500 ATM. At higher pressures, deviations from ideal gas behavior become more significant due to the increased intermolecular interactions and molecular volume effects, causing the gas to behave less ideally.
1.54 atm