Muutke küpsiste eelistusi

Thermodynamics and Energy Systems Analysis: From Energy to Exergy [Kõva köide]

  • Formaat: Hardback, 800 pages, kõrgus x laius: 178x127 mm, kaal: 1520 g
  • Ilmumisaeg: 15-Apr-2021
  • Kirjastus: Taylor & Francis Inc
  • ISBN-10: 1439835160
  • ISBN-13: 9781439835166
Teised raamatud teemal:
  • Formaat: Hardback, 800 pages, kõrgus x laius: 178x127 mm, kaal: 1520 g
  • Ilmumisaeg: 15-Apr-2021
  • Kirjastus: Taylor & Francis Inc
  • ISBN-10: 1439835160
  • ISBN-13: 9781439835166
Teised raamatud teemal:

Carefully designed to teach thermodynamics to engineers, this book focuses on the phenomena of irreversibility and the notion of entropy. It also presents a general theory of exergy, with methods of analyse that allow engineers to master problems of current interest in the field of energy management. The authors illustrate practical aspects of the theory by descibiing specific applications such as combustion chambers, turbines, compressors, heat pumps, fuel cells, refrigeration, and more.

Preface v
Chapter 1 Generalities and Fundamental Laws
1.1 Definitions
1(7)
1.2 Zeroth law of thermodynamics
8(3)
1.3 First law of thermodynamics
11(14)
1.4 State functions and process-dependent entities
25(3)
1.5 Second law of thermodynamics
28(27)
1.6 Third law of thermodynamics
55(2)
1.7 Extension to other forms of energy transfer
57(7)
1.8 Equations derived from the Gibbs equation
64(3)
1.9 Partial state functions
67(3)
1.10 The Gibbs-Duhem relation
70(1)
1.11 Thermodynamic (or absolute) temperature and empirical temperature
71(8)
Chapter 2 Closed Systems and General Thermodynamic Relations
2.1 Fundamental equations for a closed and homogeneous system
79(1)
2.2 Equation of state
80(1)
2.3 Thermodynamic processes and diagrams
81(2)
2.4 Thermal and calorific factors
83(2)
2.5 Specific heats
85(2)
2.6 Mathematical Relations between the state functions, the different factors and the specific heats
87(8)
2.7 Extension to the evolution of heterogeneous closed systems and the notion of thermodynamic equilibrium
95(8)
Chapter 3 Balance of Extensive Properties
3.1 Spatial and substancial balance of a scalar extensive property
103(6)
3.2 Spatial and substantial balance of an extensive vector entity
109(2)
3.3 Mass balance
111(2)
3.4 Energy balance
113(8)
3.5 Entropy balance
121(4)
3.6 Momentum balance
125(1)
3.7 Balance of the moment of Momentum
126(3)
Chapter 4 Open systems, In steady State Operation
4.1 Fundamental equations of an open system, in steady state operation
129(16)
4.2 Static and dynamic state properties (functions)
145(6)
4.3 Plane propagation of perturbations of small amplitude
151(6)
4.4 Flow in a channel of constant cross section
157(13)
4.5 Adiabatic flow in a nozzle
170(13)
4.6 Flow in a throttled channel
183(5)
4.7 Non-adiabatic flow in a fixed channel
188(8)
4.8 Turbine and compressor
196(21)
Chapter 5 Thermodynamic Properties of Matter
5.1 Description of the various states of matter
217(9)
5.2 Perfect gases. Kinetic gas theory
226(8)
5.3 Ideal gases
234(2)
5.4 General properties of perfect and ideal gases
236(8)
5.5 Van der Waals fluids
244(15)
5.6 Virial fluids
259(1)
5.7 Synthesis of cubic equations of state
260(2)
5.8 Equation of Lee Kesler modified from the equation of Benedict-Webb-Rubin (BWR)
262(1)
5.9 Fluids of Lan-Borel
263(1)
5.10 Real bodies of matter
264(8)
5.11 Clausius-Clapeyron equation
272(4)
5.12 Specific heats of solids
276(3)
5.13 Approximate relations for solids and liquids
279(1)
5.14 Appendix: example of water as a real fluid
280(9)
Chapter 6 Mixture of Perfect or Ideal Gases
6.1 Generalities
289(1)
6.2 Pressures, volumes and entropies of mixture: Dalton's and Amagat's laws
290(8)
6.3 Internal energies, enthalpies, temperatures, gas constants and specific heats of mixture
298(3)
6.4 Mixtures with differing initial conditions
301(4)
6.5 Steady state mixing
305(4)
Chapter 7 Mixtures of a Gas and a Condensable Substance
7.1 General properties
309(8)
7.2 h-w Mollier diagram
317(7)
7.3 Mixture of two mixtures, at steady-state operation
324(3)
7.4 Heating or cooling of any arbitrary mixture
327(1)
7.5 Introduction of a liquid in a dry mixture
327(6)
7.6 Application of the notion of limit temperature
333(2)
7.7 Synthesis
335(1)
7.8 Solids and dry mixtures
336(1)
7.9 Example of application
337(4)
Chapter 8 Thermodynamic Processes and Diagrams
8.1 Typical thermodynamic processes
341(9)
8.2 Adiabatic process
350(1)
8.3 Thermodynamic diagrams
351(23)
8.4 Paraisothermal process
374(7)
Chapter 9 Simple Examples of Application of the First and Second Laws
9.1 Transformation of mechanical energy into internal energy (Joule's experiment)
381(2)
9.2 Expansion without work (Gay-Lussac-Joule experiment)
383(2)
9.3 Expansion with work
385(2)
9.4 Energy Processes
387(4)
9.5 Evolution of a heterogeneous system
391(1)
9.6 Heat transfer between two bodies
392(2)
9.7 Heat transmitter (heat exchanger)
394(3)
9.8 Compression of a perfect gas mixture
397(2)
Chapter 10 Energy and Exergy Analyses (Thermomechanical Processes)
10.1 Energy approach
399(7)
10.2 Exergy approach
406(43)
10.3 Heating by mechanical or electrical energy
449(7)
10.4 Heating and cooling by heat transfer
456(5)
10.5 Heating or cooling by transformation energy
461(13)
10.6 Turbomachines
474(5)
10.7 Energy economy
479(6)
10.8 Comments
485(5)
10.9 Synthesis of the energy and exergy approaches
490(1)
Chapter 11 Energy and Exergy Analyses (With Reactive Processes)
11.1 Generalities
491(1)
11.2 Basic chemical equations
492(3)
11.3 Complete combustion
495(7)
11.4 Energy (heating) values of afuel
502(16)
11.5 Energy balances and combustion temperature
518(15)
11.6 Exergy values of a fuel
533(17)
11.7 Incomplete combustion
550(11)
11.8 Thermodynamic properties of combustion gases
561(5)
11.9 Evolution of a combustion process
566(4)
11.10 Fuel cells
570(7)
11.11 Synthesis of the energy and exergy approaches with reactive processes
577(2)
Chapter 12 Application Examples of
Chapters 10 and 11
12.1 Combustion chamber
579(6)
12.2 Steam boiler
585(13)
12.3 Internal combustion engine
598(9)
Chapter 13 Thermodynamic Cycles
13.1 Generalities
607(1)
13.2 General features of cycles
608(3)
13.3 Single thermal source cycles
611(6)
13.4 Bithermal cycles
617(3)
13.5 Bithermal power cycles
620(19)
13.6 Bithermal heat pump cycles
639(17)
13.7 Synthesis of bithermal cycles
656(11)
Chapter 14 Application Examples of
Chapters 10 Through 13
14.1 Steam power plants
667(29)
14.2 Gas cycles power plants
696(17)
14.3 Advanced power plants
713(6)
14.4 Heat pump plants
719(24)
Chapter 15 Linear Thermodynamics of Irreversible Phenomena
15.1 Phenomenological approach
743(2)
15.2 Reciprocal Onsager and Casimir relation
745(3)
15.3 Prigogine's principle
748(2)
15.4 Thermoelectrical effects
750(8)
15.5 Particular thermoelectrical effects
758(7)
15.6 Applications of thermoelectric effects
765(8)
Bibliography 773(6)
Nomenclature 779(8)
Index 787