热力学（第6版）（英文影印版）

.2-9 summary
problems
3 properties of n pure, simple compressible substance
3-1 the state postulate and simple systems
3-2 the pvt surface
3-3 the pressure-temperature diagram
3-4 the pressure-specific volume diagram
3-5 the temperature-specific volume diagram
3-6 tables of properties of pure substances
3-7 tabular data and closed-system energy analysis
3-8 the specific heats
3-9 summary
3-10 appendix: fundamentals of partial derivatives
problems
4 the ideal gas, corresponding states，and incompressible models
4-1 ideal-gas equation of state
4-2 internal energy, enthalpy, and specific-heat relations for ideal gases
4-3 specific heats of ideal gases
4-4 energy analysis of closed ideal-gas systems
4-5 the compressibility factor and the corresponding states principle
4-6 property relations for incompressible substances
4-7 summary
problems
5 control-volume energy analysis
5-1 introduction
5-2 conservation of mass principle for a control volume
5-3 conservation of energy principle for a control volume
5-4 steady-state control-volume energy equations
5-5 comments on problem-solving techniques
5-6 engineering applications involving steady-state control volumes
5-7 introduction to thermodynamic cycles
5-8 transient (unsteady) flow analysis
5-9 summary
problems
6 the second law and entropy
6-1 introduction
6-2 heat engines, refrigerators, and heat pumps
6-3 second-law statements
6-4 reversible and irreversible processes
6-5 the second law and entropy--classical presentation
6-5-1 analytical forms of the kelvin-planck statement
6-5-2 general second-law limitations for heat engines
6-5-3 the thermodynamic temperature scale
6-5-4 performance standards for reversible heat engines
6-5-5 theclausius inequality
6-5-6 the entropy function
6-5-7 entropy generation and the closed-system entropy balance
6-6 the second law and entropy--alternate presentation
6-6-1 the second-law postulate
6-6-2 an entropy balance for a closed system
6-6-3 the thermodynamic temperature scale and the camot efficiency
6-6-4 measuring the entropy function
6-6-5 equivalence of the four statements of the second law
6-7 entropy balance for a control volume
6-8 increase in entropy principle for a closed system
6-9 second-law limitations on the performance of heat engines, refrigerators, and heat pumps
6-10 heat transfer and the ts diagram
6-10-1 entropy change for a thermal-energy reservoir
6-10-2 entropy generation associated with heat transfer
6-10-3 loss in work potential associated with heat transfer
6-11 applications
6-12 entropy in terms of randomness and probability
6-13 summary
problems
7 evaluation of entropy change and the control-volume entropy balance
7-1 graphical and tabular presentation of entropy data
7-2 the t ds equations for pure, simple compressible substances
7-3 entropy change of an ideal gas
7-4 entropy change of an incompressible substance
7-5 applications of the steady-state entropy balance for a control volume
7-6 steady-flow work relationships
7-7 summary
problems
8 some consequences of the second law
8-1 isentropic processes..
8-2 adiabatic efficiencies of steady-flow devices
8-3 the carnot cycle
8-4 the transient adiabatic-discharge process
8-5 summary
problems
9 availability (exergy) and irreversibility
9-1 introduction
9-2 work and entropy production
9-3 availability
9-4 control-volume availability analysis
9-5 second-law efficiency or effectiveness
9-6 summary
problems
10 nonreactive ideal-gas mixtures
10-1 composition analysis of gas mixtures
10-2 pvt relationships for ideal-gas mixtures
10-3 internal energy, enthalpy, and entropy for ideal-gas mixtures
10-4 mixing processes involving ideal gases
10-5 properties of an ideal gas-vapor mixture
10-6 the adiabatic-saturation and wet-bulb temperatures
10-7 the psychrometric chart
10-8 air-conditioning processes
10-9 summary
problems
11 pvt behavior of real gases and real-gas mixtures
11-1 the virial equation of state
11-2 two-constant equations of state
11-3 other equations of state
11-4 real-gas mixtures
11-5 summary
suggested readings and references
problems
12 generalized thermodynamic relationships
12-1 fundamentals of partial derivatives
12-2 some fundamental property relations
12-3 generalized relations for changes in entropy, internal energy, and enthalpy
12-4 generalized relations for cp and cv
12-5 vapor pressure and the clapeyron equation
12-6 the joule-thomson coefficient
12-7 generalized thermodynamic charts
12-8 development of property tables
12-9 summary
problems
13 chemical reactions
13-1 stoichiometry of reactions
13-2 actual combustion processes
13-3 the enthalpy of formation
13-4 steady-flow energy analysis of reacting mixtures
13-5 adiabatic flame temperature
13-6 constant-volume thermochemical analysis
13-7 enthalpy of reaction and heating values
13-8 second law analysis of reactions
13-9 availability analysis of reacting systems
13-10 fuel cells
13-11 summary
problems
14 chemical equilibrium
14-1 introduction
14-2 the gibbs criterion
14-3 equilibrium and the chemical potential
14-4 the chemical potential of an ideal gas
14-5 the equilibrium constants ko and kp
14-6 calculation of ko values
14-7 calculation of equilibrium compositions
14-8 first-law analysis of equilibrium ideal-gas mixtures
14-9 the van't hoff equation relating ko and δhr
14-10 simultaneous reactions
14-11 summary
problems
17 refrigeration systems
17-1 the reversed camot cycle
17-2 the vapor-compression refrigeration cycle
17-3 heat pumps
17-4 cascade and multistaged vapor-compression systems
17-5 liquefaction and solidification of gases
17-6 gas refrigeration cycles
17-7 stifling refrigeration cycle
17-8 absorption refrigeration
17-9 availability analysis of a vapor-compression refrigeration cycle
17-10 summary
problems
bibliography
a-1 supplementary tables and figures (si units)
a-2 supplementary tables and figures (uscs units)
a-3 introduction to ees
symbols
selected problem answers
photo credits
index...