Lecture 1Book Overview. Lecture 2Basic Concepts and Definitions. Lecture 3First Law Closed Systems Derivation. Lecture 4First Law Closed Systems Derivation Solution to Sample Problem 1. Lecture 5First Law Closed Systemsampnbsp Solution to Sample Problem 1 Continued. Lecture 6First Law Open Systemsampnbsp Derivation Solution to Sample Problem 2. Lecture 7SecondLaw Concepts. Lecture 8Heat Engine Carnot Efficiency. Lecture 9Entropy Reversibility. Lecture 10The Second Law of Thermodynamics Maximum Work. Lecture 11The Combined First and Second Laws of Thermodynamics Availability. Lecture 12Flow Work Solution to Sample Problem 3. Lecture 13Fundamental Equations. Lecture 14Manipulation of Partial Derivatives. Lecture 15Gibbs Free Energy Formulation. Lecture 16Evaluation of Thermodynamic Data. Lecture 17Equation of State EOS Binodal Spinodal Critical Point. Lecture 18Principle of Corresponding States. Lecture 19Departure Functions. Lecture 20Review for Part I. . Lecture 21Extensive and Intensive Mixture Properties Partial Molar Properties. Lecture 22Generalized GibbsDuhem Relations for Mixtures Calculation of Partial Molar Properties. Lecture 23Mixture EOS Mixture Departure Functions IdealGas Mixtures Ideal Solutions. Lecture 24Mixing Functions Excess Functions. Lecture 25Fugacity Fugacity Coefficient. Lecture 26Activity Activity Coefficient. Lecture 27Criteria of Phase Equilibria Gibbs Phase Rule. Lecture 28Applications of the Gibbs Phase Rule Azeotrope. Lecture 29Differential Approach to Phase Equilibria PressureTemperatureComposition Relations ClausiusClapeyron Equation. Lecture 30Integral Approach to Phase Equilibria Composition Models. Lecture 31Chemical Equilibria Stoichiometric Formulation. Lecture 32Equilibrium Constants for GasPhase and CondensedPhase Reactions. Lecture 33Response of Chemical Reactions to Temperature Le Chateliers Principle. Lecture 34Response of Chemical Reactions to Pressure Applications. Lecture 35Gibbs Phase Rule for Chemically Reacting Sy