Respuesta :
You would have to use the ideal gas law for this:
PV=nRT
Pressure, Volume, n=moles, R gas constant, Temperature in Kelvin
P=nRT/V
(1.8mol)(62.36)(309K)/43.0L = 805mm Hg
PV=nRT
Pressure, Volume, n=moles, R gas constant, Temperature in Kelvin
P=nRT/V
(1.8mol)(62.36)(309K)/43.0L = 805mm Hg
Answer:
805 mmHg is the pressure when the container is compressed
Explanation:
Initial Volume of the gas, V = 55.0 L
Initial Moles of the gas, n = 2.4 mol
Initial Pressure of the gas ,P=760 mmHg
initial temperature of the gas, T = 280 K
Using an Ideal gas equation:
[tex]PV=nRT[/tex]
[tex]R=\frac{PV}{nT}[/tex]...(1)
Final Volume of the gas, V '= 43.0 L
Final Moles of the gas, n' = 1.8 mol
Final Pressure of the gas = p'
Final temperature of the gas, T' =36 °C = 309 K
Using an Ideal gas equation:
[tex]R=\frac{P'V'}{n'T'}[/tex]..(2)
(1)=(2)
[tex]\frac{PV}{nT}=\frac{P'V'}{n'T'}[/tex]
[tex]\frac{760 mmHg\times 55.0 L}{2.4 mol\times 280 K}=\frac{P'\times 43.0 L}{1.8 mol\times 309 K}[/tex]
P' = 805 mmHg
805 mmHg is the pressure when the container is compressed.