Fundamentals of Heat Engines. Jamil Ghojel

10.1 Component Efficiencies 10.2 Simple Irreversible Cycle 10.3 Irreversible Cycle with Heat Exchange (Regenerative Irreversible Cycle) 10.4 Irreversible Cycle with Reheat 10.5 Irreversible Cycle with Intercooling 10.6 Irreversible Cycle with Heat Exchange and Reheat 10.7 Irreversible Cycle with Heat Exchange and Intercooling 10.8 Irreversible Cycle with Heat Exchange, Reheat, and Intercooling 10.9 Comparison of Irreversible Cycles 11 Practical Gas Turbine Cycles 11.1 Simple Single‐Shaft Gas Turbine 11.2 Thermodynamic Properties of Air 11.3 Compression Process in the Compressor 11.4 Combustion Process 11.5 Expansion Process in the Turbine 12 Design‐Point Calculations of Aviation Gas Turbines 12.1 Properties of Air 12.2 Simple Turbojet Engine 12.3 Performance of Turbojet Engine – Case Study 12.4 Two‐Spool Unmixed‐Flow Turbofan Engine 12.5 Performance of Two‐Spool Unmixed‐Flow Turbofan Engine – Case Study 12.6 Two‐Spool Mixed‐Flow Turbofan Engine 12.7 Performance of Two‐Spool Mixed‐Flow Turbofan Engine – Case Study 13 Design‐Point Calculations of Industrial Gas Turbines 13.1 Single‐Shaft Gas Turbine Engine 13.2 Performance of Single‐Shaft Gas Turbine Engine – Case Study 13.3 Two‐Shaft Gas Turbine Engine 13.4 Performance of Two‐Shaft Gas Turbine Engine – Case Study 14 Work‐Transfer System in Gas Turbines 14.1 Axial‐Flow Compressors 14.2 Radial‐Flow Compressors 14.3 Axial‐Flow Turbines 14.4 Radial‐Flow Turbines 15 Off‐Design Performance of Gas Turbines 15.1 Component‐Matching Method 15.2 Thermo‐Gas‐Dynamic Matching Method

      9  Bibliography

      10  Appendix A Thermodynamic Tables

      11  Appendix B Dynamics of the Reciprocating Mechanism

      12  Appendix C Design Point Calculations – Reciprocating Engines C.1. Engine Processes

      13  Appendix D Equations for the Thermal Efficiency and Specific Work of Theoretical Gas Turbine Cycles Nomenclature

      14  Index

      15  End User License Agreement

      List of Tables

      1 Chapter 1Table 1.1 Equations of motion for linear and rotational motions.Table 1.2 Symbols, units, and dimensions of common physical quantities.Table 1.3 Coefficients of Eq. (1.99) for the calculation of

of combustion produ...Table 1.4 Coefficients of Eq. (1.100) for the calculation of

of air.

      2 Chapter 2Table 2.1 Typical carbon, hydrogen, and sulfur mass contents of common fuels.Table 2.2 Composition of air.Table 2.3 Volume composition of some gaseous fuels.Table 2.4 Typical carbon, hydrogen, oxygen, and sulfur mass contents of common l...Table 2.5 Stoichiometric reactions of the elements of a liquid or solid fuel.Table 2.6 Coefficientsa_n in Eq. (2.38) for specific heats at constant pressure o...Table 2.7 Coefficientsa_n in Eq. (2.47) for internal energies of air and combusti...Table 2.8 Composition and heating values of some liquid, gaseous, and solid fuel...Table 2.9 Coefficientsa_n in Eq. (2.62) for air and combustion products (T = 300–...Table 2.10 Adiabatic flame temperature of octane (C₈H₁₈) vs. relative air‐fuel r...Table 2.11 Entropy change data for combustion of methane.Table 2.12 Equilibrium constant

for the reaction aA + bB ⇄ cC + dD...Table 2.13 Equilibrium constants for dissociation reactions in products with six...Table 2.14 Equilibrium constants for dissociation reactions in products with 11 ...Table 2.15 Equilibrium constants for dissociation reactions in products with 18 ...Table 2.16 Adiabatic flame temperature for frozen and equilibrium compositions o...

      3 Chapter 5Table 5.1 Typical values of the parameters of the compression process in real en...Table 5.2 Typical values of the parameters of the expansion process in real engi...Table