Home

The syllabus of a one-term course taught at the University of Iowa (spring 2007) 
«
004:131. Physical chemistry I»

Anatoly Chernyshev


Main textbook: Physical Chemistry, 8th ed, by Atkins P. and de Paula J.; Student solutions manual.

Supplementary textbooks:     The Feynman Lectures on Physics; 
                                                       Berry S., Rice S.A., Rose J. Physical Chemistry;
                                                       Prigogine, I., Defay R. Chemical Thermodynamics.

Objectives: Physical chemistry is a discipline, which studies and interprets chemical phenomenae in a quantitative, physical way.
This course will cover basics of one branch of physical chemistry, chemical thermodynamics, with some extensions to equilibrium electrochemistry. Primary target audience for the course are chemistry, biochemistry and chemical engineering majors.

Problem sets will be given about three times per month.

Exams: Three intermediate two-hour exams are scheduled plus the final exam.

Tentative schedule:

 

 

Section
in the textbook

 

 

 

 

1

Introduction and outline of the course.

 

January

 

Wed

Jan 17

2

Ideal gases.

1

Chemical thermodynamics

Fri

Jan 19

3

Real gases. Fugacity. Virial equations.

1

Mon

Jan 22

4

Work, heat, energy.

2

Wed

Jan 24

5

Heat capacity.

2

Fri

Jan 26

6

State functions. The first law of thermodynamics. Enthalpy.

2

Mon

Jan 29

7

Enthropy.

3

Wed

Jan 31

8

The second and third laws. Ortho-para conversion of hydrogen. Gibbs paradox.

3

February

Fri

Feb 02

9

The Gibbs and Helmholtz energies. Redox potential.

3

Mon

Feb 05

10

Adiabatic processes.

2.6

Wed

Feb 07

11

Chemical potential and equilibrium

7.1-7.4

Fri

Feb 09

12

Equilibrium in heterogeneous systems.

 

Mon

Feb 12

13

Liquid-vapor equilibrium

18.6-18.8

Wed

Feb 14

14

Liquid-solid equilibrium. Surface tension. Capillary action.

18.6-18.8

Fri

Feb 16

15

Liquid-liquid equilibrium. Steam distillation.

5.4-5.5

Mon

Feb 19

16

Solid-gas equilibrium. Sublimation.

 

Wed

Feb 21

17

Thermodynamics of the surfaces. Adsorption. Adsorption isotherms.

25.1-25.5

Fri

Feb 23

18

Review session

 

Exam

Mon

Feb 26

19

Solutions. Solvatation. Concentration and activity.

5

Solutions

Wed

Feb 28

20

Raoult and Henry's laws.

5

March

Fri

Mar 02

21

Boiling and freezing points.

5

Mon

Mar 05

22

Gibbs-Duhem equation.

5

Wed

Mar 07

23

Ionic strength. Debye-Huckel theory. Osmosis.

F5.1; I5.2

Fri

Mar 09

 

Spring break

 

 

 

 

24

Phase definition. The phase rule.

6

Phase transitions

Mon

Mar 19

25

One-component systems. Definition of phase transitions.

4

Wed

Mar 21

26

Phase stability. Clausius-Clapeyron equation.

4

Fri

Mar 23

27

Phase diagrams.

4, 6

Mon

Mar 26

28

Two component systems.

6

Wed

Mar 28

29

Distilation. Azeotropes.

6

Fri

Mar 30

30

Crystallization. Eutectics. Congruent and incongruent melting.

6

April

Mon

Apr 02

31

Electron transfer. Half reactions. Nernst equation.

7.5-7.9

Electro-
chemistry

Wed

Apr 04

32

Electric double layer.

25.8

Fri

Apr 06

33

Electrochemical equilibrium. Pourbaix diagrams.

7.5-7.9

Mon

Apr 09

34

Review session

 

Exam

Wed

Apr 11

35

Phase space. Configuration points.

 

Statistical
thermodynamics

Fri

Apr 13

36

Microscopic and macroscopic state.

16

Mon

Apr 16

37

Statistical ensembles.

16

Wed

Apr 18

38

Partition function.

16

Fri

Apr 20

39

The statistical entropy.

16

Mon

Apr 23

40

Maxwell-Boltzmann, Fermi-Dirac, and Bose-Einstein distributions

16

Wed

Apr 25

41

Applications of statistical thermodynamics.

17

Fri

Apr 27

42

Statistics of polymer chains.

I16.1

Mon

Apr 30

43

Review session

 

May

Exam 

Wed

May 02

1