The values of the ideal gas constant (R) are given in the following table: Values of the Universal Gas Constant R = 8.314 J-mol--K¯' = 8.314 m³-Pa-mol.K-! = 83.14 cm³-bar-mol¬-K¯1 = 8314 cm³ -kPa-mol'K^! 82.06 cm³-(atm)-mol'K¯l = 62, 356 cm³-(torr)-molK" = 1.987 (cal)-mol¬-K' = 1.986 (Btu)(lb mole)¯'(R)~1 = 0.7302 (ft)³ (atm) (lb mol)¯'(R)~' = 10.73 (ft) (psia) (lb mol)¯'(R)~1 1545 (ft) (lbf) (lb mol)¯'(R)¯1 %3D %3D Calculate compressibility (Z) and the molar volume (V) for nitrogen trifluoride for the following condition. (For nitrogen trifluoride, Tc= 234 K, Pc = 44.6 bar, and w = 0.126.) Consider nitrogen trifluoride at 300 K and 95 bar and use the Peng/Robinson equation. The molar volume is cm3.mol"1. The compressibility is

Introduction to Chemical Engineering Thermodynamics
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ISBN:9781259696527
Author:J.M. Smith Termodinamica en ingenieria quimica, Hendrick C Van Ness, Michael Abbott, Mark Swihart
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Chapter1: Introduction
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Problem 1.1P
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The molar volume is   cm3·mol-1.

 

The compressibility is  .

 
 
 
 
Values of the Universal Gas Constant
R =
8.314 J-mol--K-' = 8.314 m³.Pa-mol¬1·K-'
83.14 cm3-bar-mol¬1-K- = 8314 cm³ -kPa-mol-1.K-1
82.06 cm³-(atm)-mol K-1 = 62, 356 cm³-(torr)-mol¯1-K-1
1.987 (cal)-mol K'=1.986 (Btu)(lb mole) (R)
= 0.7302 (ft) (atm) (lb mol) (R)-1 = 10.73 (ft) (psia) (lb mol) (R)-1
= 1545 (ft) (lbf) (lb mol)¯(R)¯
Calculate compressibility (Z) and the molar volume (V) for nitrogen trifluoride for the following condition. (For nitrogen
trifluoride, Tc= 234 K, Pc= 44.6 bar, and w = 0.126.)
Consider nitrogen trifluoride at 300 K and 95 bar and use the Soave/Redlich/Kwong equation. (You must provide an answer before
moving to the next part.)
The molar volume is 188.56
cm3.mol1.
The compressibility is 0.7182
Transcribed Image Text:Values of the Universal Gas Constant R = 8.314 J-mol--K-' = 8.314 m³.Pa-mol¬1·K-' 83.14 cm3-bar-mol¬1-K- = 8314 cm³ -kPa-mol-1.K-1 82.06 cm³-(atm)-mol K-1 = 62, 356 cm³-(torr)-mol¯1-K-1 1.987 (cal)-mol K'=1.986 (Btu)(lb mole) (R) = 0.7302 (ft) (atm) (lb mol) (R)-1 = 10.73 (ft) (psia) (lb mol) (R)-1 = 1545 (ft) (lbf) (lb mol)¯(R)¯ Calculate compressibility (Z) and the molar volume (V) for nitrogen trifluoride for the following condition. (For nitrogen trifluoride, Tc= 234 K, Pc= 44.6 bar, and w = 0.126.) Consider nitrogen trifluoride at 300 K and 95 bar and use the Soave/Redlich/Kwong equation. (You must provide an answer before moving to the next part.) The molar volume is 188.56 cm3.mol1. The compressibility is 0.7182
The values of the ideal gas constant (R) are given in the following table:
Values of the UniverSal Gas Constant
R = 8.314 J-mol¬1-K¯1 = 8.314 m³-Pa-mol-'-K-'
= 83.14 cm³-bar-mol-1-K-1 = 8314 cm3 -kPa-mol¬1-K-1
= 82.06 cm³ (atm)-mol1 K- = 62, 356 cm³.(torr)-mol1.K-
1.987 (cal)-mol.-K1 = 1.986 (Btu)(lb mole) (R)-
= 0.7302 (ft)° (atm) (lb mol)~'(R)~1 = 10.73 (ft)° (psia) (lb mol)- (R)-1
1545 (ft) (lbf) (lb mol)¯(R)~1
Calculate compressibility (Z) and the molar volume (V) for nitrogen trifluoride for the following condition. (For nitrogen
trifluoride, Tc= 234 K, Pc= 44.6 bar, and w = 0.126.)
Consider nitrogen trifluoride at 300 K and 95 bar and use the Peng/Robinson equation.
The molar volume is
cm3.mol1.
The compressibility is
Transcribed Image Text:The values of the ideal gas constant (R) are given in the following table: Values of the UniverSal Gas Constant R = 8.314 J-mol¬1-K¯1 = 8.314 m³-Pa-mol-'-K-' = 83.14 cm³-bar-mol-1-K-1 = 8314 cm3 -kPa-mol¬1-K-1 = 82.06 cm³ (atm)-mol1 K- = 62, 356 cm³.(torr)-mol1.K- 1.987 (cal)-mol.-K1 = 1.986 (Btu)(lb mole) (R)- = 0.7302 (ft)° (atm) (lb mol)~'(R)~1 = 10.73 (ft)° (psia) (lb mol)- (R)-1 1545 (ft) (lbf) (lb mol)¯(R)~1 Calculate compressibility (Z) and the molar volume (V) for nitrogen trifluoride for the following condition. (For nitrogen trifluoride, Tc= 234 K, Pc= 44.6 bar, and w = 0.126.) Consider nitrogen trifluoride at 300 K and 95 bar and use the Peng/Robinson equation. The molar volume is cm3.mol1. The compressibility is
Expert Solution
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In thermodynamics, compressibility is a measure of the relative volume change of a fluid or solid as a response to a pressure change. It is denoted by Z.

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