Thermodynamics Concepts and Applications 2nd Edition by Stephen Turns, Laura Pauley ISBN 1316846148 9781316846148

Thermodynamics Concepts and Applications 2nd Edition by Stephen R. Turns, Laura L. Pauley – Ebook PDF Instant Download/Delivery:1316846148 , 978-1316846148
Full download Thermodynamics Concepts and Applications 2nd Edition after payment

Product details:

ISBN 10:      1316846148
ISBN 13: 978- 1316846148
Author:     Stephen R. Turns, Laura L. Pauley

Thermodynamics Concepts and Applications 2nd Table of contents:

Chapter 1: Beginnings

• Learning Objectives
• Chapter 1 Overview
  • 1.1 What Is Thermodynamics?
  • 1.2 Some Applications
    • 1.2a Steam Power Plants
    • 1.2b Spark-Ignition Engines
    • 1.2c Jet Engines
  • 1.3 Learning Thermodynamics
  • 1.4 Physical Frameworks for Analysis
    • 1.4a Closed Systems
    • 1.4b Open Systems (Control Volumes)
  • 1.5 Key Concepts and Definitions
    • 1.5a Properties
    • 1.5b States
    • 1.5c Processes
    • 1.5d Cycles
    • 1.5e Equilibrium and the Quasi-Equilibrium Process
  • 1.6 Dimensions and Units
  • 1.7 Problem-Solving Method
  • 1.8 Mathematical Skills to Review
• Summary
• Chapter 1 Key Concepts and Definitions Checklist
• References
• Chapter 1 Problems

Chapter 2: Thermodynamic Properties, Property Relationships, and Processes

• Learning Objectives
• Chapter 2 Overview
  • 2.1 Why Properties Are Important
  • 2.2 Key Definitions
  • 2.3 Frequently Used Thermodynamic Properties
    • 2.3a Properties Related to the Equation of State
      • Mass
      • Number of Moles
      • Volume
      • Density
      • Specific Volume
      • Pressure
      • Temperature
    • 2.3b Properties Related to the First Law
      • Internal Energy
      • Enthalpy
      • Specific Heats and Specific-Heat Ratio
    • 2.3c Properties Related to the Second Law
  • 2.4 Concept of State Relationships
    • 2.4a State Principle
    • 2.4b P–v–T Equations of State
    • 2.4c Calorific Equations of State
  • 2.5 Ideal Gases as Pure Substances
    • 2.5a Ideal-Gas Definition
    • 2.5b Ideal-Gas Equation of State
    • 2.5c Processes in P–v–T Space
    • 2.5d Ideal-Gas Calorific Equations of State
  • 2.6 Nonideal-Gas Properties
    • 2.6a State (P–v–T) Relationships
    • 2.6b Calorific Relationships
  • 2.7 Pure Substances Involving Liquid and Vapor Phases
    • 2.7a State (P–v–T) Relationships
    • 2.7b Calorific and Second-Law Properties
  • 2.8 Liquid Property Approximations
  • 2.9 Solids
• Summary
• Chapter 2 Key Concepts and Definitions Checklist
• Chapter 2 Problems

Chapter 3: Conservation of Mass

• Learning Objectives
• Chapter 3 Overview
  • 3.1 Generic Balance Principle
  • 3.2 Mass Conservation for a Closed System
  • 3.3 Flow Rates and Average Velocity
    • 3.3a Flow Rates
    • 3.3b Average Velocity
  • 3.4 Mass Conservation for an Open System (Control Volume)
    • 3.4a General View of Mass Conservation for Open Systems
    • 3.4b Steady-State, Steady Flow
    • 3.4c Unsteady Flows
• Summary
• Chapter 3 Key Concepts and Definitions Checklist
• Chapter 3 Problems
• Appendix 3A: Spark-Ignition Engine Geometry

Chapter 4: Energy and Energy Transfer

• Learning Objectives
• Chapter 4 Overview
  • 4.1 Closed and Open System Energy
    • 4.1a Energy Associated with a System
    • 4.1b Energy at a Microscopic Level
  • 4.2 Energy Transfer across Boundaries
    • 4.2a Heat
    • 4.2b Work
      • Expansion Work
      • Shaft Work
      • Electrical Work
      • Flow Work
  • 4.3 Sign Conventions and Units
  • 4.4 Rate Laws for Heat Transfer
    • 4.4a Conduction
    • 4.4b Convection
    • 4.4c Radiation
• Summary
• Chapter 4 Key Concepts and Definitions Checklist
• Chapter 4 Problems

Chapter 5: First Law of Thermodynamics

• Learning Objectives
• Chapter 5 Overview
  • 5.1 Energy Conservation for a Closed System
  • 5.2 Energy Conservation for Open Systems
    • 5.2a Steady Flow
    • 5.2b Unsteady Flow
  • 5.3 Applications of the First Law to Open Systems
• Summary
• Chapter 5 Key Concepts and Definitions Checklist
• Chapter 5 Problems

Chapter 6: Second Law of Thermodynamics and Some of Its Consequences

• Learning Objectives
• Chapter 6 Overview
  • 6.1 Usefulness of the Second Law
  • 6.2 One Fundamental Statement of the Second Law
    • 6.2a Reservoirs
    • 6.2b Heat Engines
    • 6.2c Thermal Efficiency and Coefficients of Performance
    • 6.2d Reversibility
  • 6.3 Consequences of the Kelvin-Planck Statement
    • 6.3a Kelvin’s Absolute Temperature Scale
    • 6.3b The Carnot Efficiency
  • 6.4 Alternative Statements of the Second Law
• Summary
• Chapter 6 Key Concepts and Definitions Checklist
• Chapter 6 Problems

Chapter 7: Entropy and Availability

• Learning Objectives
• Chapter 7 Overview
  • 7.1 Entropy
    • 7.1a Definition
    • 7.1b Isothermal Heat Transfer
    • 7.1c Derivation of Entropy as a Property
    • 7.1d Specific Entropy
  • 7.2 Ideal-Gas Properties and Processes
  • 7.3 Specific Entropy for Pure Nonideal Substances
  • 7.4 Entropy Balances for a Closed System
  • 7.5 Entropy Balances for Open Systems
  • 7.6 Availability (Exergy)
• Summary
• Chapter 7 Key Concepts and Definitions Checklist
• Chapter 7 Problems
• Appendix 7A: Molecular Interpretation of Entropy

Chapter 8: Thermal-Fluid Analysis of Steady-Flow Devices

• Learning Objectives
• Chapter 8 Overview
  • 8.1 Steady-Flow Devices
  • 8.2 Nozzles and Diffusers
  • 8.3 Throttles
  • 8.4 Pumps, Compressors, and Fans
  • 8.5 Turbines
  • 8.6 Heat Exchangers
• Summary
• Chapter 8 Key Concepts and Definitions Checklist
• Chapter 8 Problems

Chapter 9: Systems for Power Production, Propulsion, Heating, and Cooling

• Learning Objectives
• Chapter 9 Overview
  • 9.1 Steam Power Plants
  • 9.2 Gas-Turbine Engines
  • 9.3 Modified Power Cycles
  • 9.4 Turbojet Engines
  • 9.5 Other Gas Power Cycles
  • 9.6 Refrigerators and Heat Pumps
• Summary
• Chapter 9 Key Concepts and Definitions Checklist
• Chapter 9 Problems
• Appendix 9A: Turbojet Engine Analysis Revisited

Chapter 10: Ideal-Gas Mixtures

• Learning Objectives
• Chapter 10 Overview
  • 10.1 Ideal-Gas Mixtures
  • 10.2 Specifying Mixture Composition
  • 10.3 State (P–v–T) Relationships for Mixtures
  • 10.4 Calorific Relationships for Mixtures
  • 10.5 Second-Law Relationships for Mixtures
  • 10.6 Gibbs Free Energy
• Summary
• Chapter 10 Problems

Chapter 11: Air–Vapor Mixtures

• Learning Objectives
• Chapter 11 Overview
  • 11.1 Air Conditioning, Humidification, and Related Systems
  • 11.2 Physical Systems
  • 11.3 General Analysis
  • 11.4 Some New Concepts and Definitions
  • 11.5 Recast Conservation Equations
  • 11.6 Humidity Measurement
• Summary
• Chapter 11 Key Concepts and Definitions Checklist
• Chapter 11 Problems

Chapter 12: Reacting Systems

• Learning Objectives
• Chapter 12 Overview
  • 12.1 Mass Conservation for Reacting Systems
  • 12.2 Energy Conservation for Reacting Systems
  • 12.3 Combustion Chemistry
  • 12.4 Performance of Combustion Systems
  • 12.5 Direct and Indirect Heat Integration
  • 12.6 Selection of Fuel
• Summary
• Chapter 12 Key Concepts and Definitions Checklist
• Chapter 12 Problems

People also search for Thermodynamics Concepts and Applications 2nd :

photonics and thermodynamics concepts in radiative cooling
sr turns thermodynamics concepts and applications
thermodynamics concepts and applications pdf
law of thermodynamics concepts
first law of thermodynamics concepts

Tags:

Stephen Turns, Laura Pauley,Thermodynamics,Concepts,Applications 2nd