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Physical Chemistry

by Keith J. Laidler, John H. Meiser and Bryan C. Sanctuary.

Thermodynamics module

In addition to chapter 1, the topics covered in this module are:

2. The First Law of Thermodynamics
3. The Second and Third Laws of Thermodynamics
4. Chemical Equilibrium
5. Phases and Solutions
6. Phase Equilibria

 
     
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A screen shot of the Carnot cycle interaction which shows how the four strokes are related to a steam engine cycle. Calculate each step and discover Entropy as Carnot did. Voice overlays clearly explain the processes.

 

What's inside:

Detailed Table of Contents

 
 
 
 

Table of Contents


Chapter 2

The First Law of Thermodynamics
2.1 Origins of the First Law
2.2 States and State Functions
2.3 Equilibrium States and Reversibility
2.4 Energy, Heat, and Work
  The Nature of Work Processes at Constant Volume Processes at Constant Pressure: Enthalpy Heat Capacity
2.5 Thermochemistry
  Extent of Reaction Standard States Measurement of Enthalpy Changes Calorimetry Relationship between ΔU and ΔH Temperature Dependence of Enthalpies of Reaction Enthalpies of Formation Bond Enthalpies
2.6 Ideal Gas Relationships
  Reversible Compression at Constant Pressure Reversible Pressure Change at Constant Volume Reversible Isothermal Compression Reversible Adiabatic Compression
2.7 Real Gases
  The Joule-Thomson Experiment Van der Waals Gases
Key Equations
Problems
Suggested Reading

Chapter 3

The Second and Third Laws of Thermodynamics
  Biography: Rudolf Julius Emmanuel Clausius
3.1 The Carnot Cycle
  Efficiency of a Reversible Carnot Engine Carnot’s Theorem The Thermodynamic Scale of Temperature The Generalized Cycle: The Concept of Entropy
3.2 Irreversible Processes
3.3 Molecular Interpretation of Entropy
3.4 The Calculation of Entropy Changes
  Changes of State of Aggregation Ideal Gases Entropy of Mixing Informational or Configurational Entropy Solids and Liquids
3.5 The Third Law of Thermodynamics
  Cryogenics: The Approach to Absolute Zero Absolute Entropies
3.6 Conditions for Equilibrium
  Constant Temperature and Pressure: The Gibbs Energy Constant Temperature and Volume: The Helmholtz Energy
3.7 The Gibbs Energy
  Molecular Interpretation Gibbs Energies of Formation Gibbs Energy and Reversible Work
3.8 Some Thermodynamic Relationships
  Maxwell Relations Thermodynamic Equations of State Some Applications of Thermodynamic Relationships Fugacity and Activity
3.9 The Gibbs-Helmholtz Equation
3.10 Thermodynamic Limitations to Energy Conversion
  First Law Efficiencies Second Law Efficiencies Refrigeration and Liquefaction Heat Pumps Chemical Conversion.
Key Equations
Problems
Suggested Reading

Chapter 4

Chemical Equilibrium
  Biography: Jacobus Henricus van’t Hoff
4.1 Chemical Equilibrium Involving Ideal Gases
  Equilibrium Constant in Concentration Units
4.2 Equilibrium in Nonideal Gaseous Systems
4.3 Chemical Equilibrium in Solution
4.4 Heterogeneous Equilibrium
4.5 Tests for Chemical Equilibrium
4.6 Shifts of Equilibrium at Constant Temperature
4.7 Coupling of Reactions
4.8 Temperature Dependence of Equilibrium Constants
4.9 Pressure Dependence of Equilibrium Constants
Key Equations
Problems
Suggested Reading

Chapter 5

Phases and Solutions
5.1 Phase Recognition
  Phase Distinctions in the Water System Phase Changes in Liquid Crystals Phase Equilibria in a One-Component System: Water
5.2 Vaporization and Vapor Pressure
  Thermodynamics of Vapor Pressure: The Clapeyron Equation The Clausius-Clapeyron Equation Enthalpy and Entropy of Vaporization: Trouton’s Rule Variation of Vapor Pressure with External Pressure
5.3 Classification of Transitions in Single-Component Systems
5.4 Ideal Solutions: Raoult’s and Henry’s Laws
5.5 Partial Molar Quantities
  Relation of Partial Molar Quantities to Normal Thermodynamic Properties
5.6 The Chemical Potential
5.7 Thermodynamics of Solutions
  Raoult’s Law Revisited Ideal Solutions Nonideal Solutions; Activity and Activity Coefficients
5.8 The Colligative Properties
  Freezing Point Depression Ideal Solubility and the Freezing Point Depression Boiling Point Elevation Osmotic Pressure
Key Equations
Problems
Suggested Reading

Chapter 6

Phase Equilibria
6.1 Equilibrium Between Phases
  Number of Components Degrees of Freedom The Phase Rule
6.2 One-Component Systems
6.3 Binary Systems Involving Vapor
  Liquid-Vapor Equilibria of Two-Component Systems Liquid-Vapor Equilibrium in Systems Not Obeying Raoult’s Law Temperature-Composition Diagrams: Boiling Point Curves Distillation Azeotropes Distillation of Immiscible Liquids: Steam Distillation Distillation of Partially Miscible Liquids
6.4 Condensed Binary Systems
  Two-Liquid Components Solid-Liquid Equilibrium: Simple Eutectic Phase Diagrams
6.5 Thermal Analysis
6.6 More Complicated Binary Systems
  Solid Solutions Partial Miscibility Compound Formation
6.7 Crystal Solubility: The Krafft Boundary and Krafft Eutectic
6.8 Ternary Systems
  Liquid-Liquid Ternary Equilibrium Solid-Liquid Equilibrium in Three-Component Systems Representation of Temperature in Ternary Systems
Key Equations
Problems
Suggested Reading

 
 
 

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