Thermodynamics of Materials
- Basic Concepts
1.1. Overview
1.2. Thermodynamic Systems
1.3. States and Properties
1.4. Balances
1.5. Introduction to EES
1.6. Dimensions and Units
1.7. Specific Volume, Pressure and Temperature
- Thermodynamic Properties
2.1. Equilibrium, State Properties and Gibbs Phase Rule
2.2. General Behavior of Fluids
2.3. Property Tables
2.4. EES Fluid Property Data
2.5. The Ideal Gas Model
2.6. The Incompressible Substance Model
- Energy and Energy Transport
3.1. Conservation of Energy Applied to a Closed System
3.2. Forms of Energy
3.3. Specific Internal Energy
3.4. Heat
3.5. Work
- General Application of the First Law
4.1. General Statement of the First Law
4.2. Specific Enthalpy
4.3. Methodology for Solving Thermodynamics Problems
4.4. Thermodynamic Analyses of Steady-State Applications
4.5. Analysis of Open Unsteady Systems
- The Second Law of Thermodynamics
5.1. The Second Law of Thermodynamics
5.2. Reversible and Irreversible Processes
5.3. Maximum Thermal Efficiency of Heat Engines and Heat Pumps
5.4. Thermodynamic Temperature Scale
5.5. The Carnot Cycle
- Entropy
6.1. Entropy, a Property of Matter
6.2. Fundamental Property Relations
6.3. Specific Entropy
6.4. A General Statement of the Second Law
6.5. The Entropy Balance
6.6. Efficiencies of Thermodynamic Devices
- Exergy
7.1. Definition of Exergy and Second Law Efficiency
7.2. Exergy of Heat
7.3. Exergy of a Flow Stream
7.4. Exergy of a System
7.5. Exergy Balance
- Property Relations for Pure Fluids
8.1. Equations of State for Pressure, Volume, and
Temperature
8.2. Application of Fundamental Property Relations
8.3. Derived Thermodynamic Properties
8.4. Methodology for Calculating u, h, and s