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Ideal Gas Thermodynamics Equations: Processes & Compressibility, Lecture notes of Engineering

Thermodynamics of Ideal GasesEngineering ThermodynamicsChemical Engineering Thermodynamics

Equations for process calculations for ideal gases, including isobaric, isochoric, isothermal, adiabatic, and polytropic processes. It covers entropy, energy, compressibility factor, and cubic equation of state. It also includes virial equation of state and pitzer correlations.

What you will learn

  • How do entropy and energy equations apply to ideal gases?
  • What is the role of compressibility factor and cubic equation of state in thermodynamics?
  • What are the equations for isobaric, isochoric, isothermal, adiabatic, and polytropic processes for ideal gases?

Typology: Lecture notes

2021/2022

Uploaded on 08/01/2022

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Download Ideal Gas Thermodynamics Equations: Processes & Compressibility and more Lecture notes Engineering in PDF only on Docsity! KMÜ 200 Chemical Engineering Thermodynamics: (Equation Sheet 1: Chapter 2,3,5) Equations for Process Calculations for Ideal Gases Isobaric Process Isochoric Process Isothermal Process Adiabatic Process TV  = Cons. TP  = Cons. PV  = Cons. Polytropic Process TV  = Cons. TP  = Cons. PV  = Cons. For an ideal gas ΔS = S2-S1 = Cv ln (T2/T1) +Rln (V2/V1) with constant specific heats ΔS = S2-S1 = Cp ln (T2/T1) - Rln (P2/P1) Energy Equation Entropy Equation Compressibility Factor and Cubic Equation of State Virial Equation of State Pitzer Correlations and Equations Vapor&Vapor-like Roots of the Generic Cubic EoS Liquid &Liquid-like Roots of the Generic Cubic EoS The Poly. form of RK EoS The Poly. form of SRK EoS The Poly. form of PR EoS r r r r T P RT bP B T P TR Pa A ABZBBAZZ 08664.0 42747.0 0)( 222 223      r r r r T P RT bP B T P TR Pa A BBABZBBAZBZ 07780.0 45724.0 0)()32()1( 222 32223      r r r r T P RT bP B T P TR aP A ABZBBAZZ 08664.0 42748.0 0)( 5.25.22 223    dTCHQ p dTCUQ v G j j jcv fs S T Q dt mSd mS      , )( )(     WmPVQmzguU dt mUd fs fs cv               2 2 1)( WQmzguH dt mUd fs cv               2 2 1)( 1 2 1 2 lnln P P RT V V RTWQ    3 3 2 2 32 32 )( 23 )( ...1 ...1 RT BBCD D RT BC C RT B B V D V C V B RTZRTPV PDPCPBRTZRTPV ZRTPV V V Z real real real ideal real              c c c cr P RT b P TRT Ta EoSCubicGeneric bVbV Ta bV RT P EoSWaalsdervan V a bV RT P         22 2 )( )( )( ))(( )( )(    c r c r T T T P P P  PT V V          1  TP V V          1  2.4 1 6.1 0110010 422.0 139.0 422.0 083.011 rrr r r r T B T B T P BZ T P BZZZZ   ))(( 1       ZZ Z qZ    q Z ZZZ   1 ))(( r r T P  r r T T q    )(
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