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# 270142 VO Coordination Chemistry (2018S)

## Labels

## Registration/Deregistration

## Details

max. 100 participants

Language: German

### Examination dates

### Lecturers

### Classes

Vorbesprechung: Mo. 05.03.2018 um 8:30; Seminarraum IV "Physikalische Chemie"

## Information

### Aims, contents and method of the course

1. Ions with one electron; wavefunctions; radial and angular functions; angular momentum; angular functions. 2. Ions with more than one electron; the self-consistent field approximation; electronic configurations; coupling of orbital angular momenta; coupling of spin angular momenta; spin-orbital coupling; equivalent and non-equivalent electrons; relation between electron configurations and terms; terms for equivalent electrons; Hund's rules; interpretation of Hund's rules; inter-electron repulsion parameters; spin-orbital coupling parameters. 3. Symmetry. Introduction: rotation axes, reflection planes, centre of inversion, improper rotation axes, successive operations, identity, inverse and class; point groups. 4. Definition of a group; examples; properties of a group; representations and bases; matrices as representations; matrix representations of molecular symmetry; reducible representations and irreducible representations; characters; character tables, irreducible representations and Mulliken symbols; the reduction formula; Schrödinger equation and group theory; molecular vibrations; internal coordinates; projection operators; spectroscopy and symmetry selection rules. 5. Level- and term splitting in a chemical environment; 6. Electrostatic (crystal field) theory of orbital splitting; electrostatic energy level diagrams and the spectra of octahedral complexes; Limitations of simple crystal field theory; ligand-field theory; weak, intermediate, and strong ligand fields; intermediate fields; I - The weak field method; configuration interaction; Orgel diagrams; Intermediate fields; II - The strong field method; the method of descending symmetry; Tanabe-Sugano diagrams; use of Tanabe-Sugano diagrams in the interpretation of the spectra of octahedral complexes.

### Assessment and permitted materials

### Minimum requirements and assessment criteria

Students get knowledge about electronic structure of metal complexes. They will be able to correlate energy levels and electronic spectra, to interpret simple electronic spectra and magnetic behaviour of metal complexes and to apply the fundamentals of group theory for explanation of term splitting in ligand fields of different symmetry.

Literature:

Literature:

### Examination topics

### Reading list

Sutton, D. Electronic Spectra of Transition Metal Complexes. An introductory text. McGraw-Hill Publishing Company Limited, 1968.

Kober, F. Grundlagen der Komplexchemie. Otto Salle Verlag, Frankfurt am Main, 1979.

Gade, L. Koordinationschemie. Wiley-VCH, Weinheim, 1998.

Walton, P.H. Beginning Group Theory for Chemistry. Oxford University Press, 1998.

Cotton, F.A. Chemical Applications of Group Theory, third edition. John Wiley & Sons, 1990.

Schläfer, H.L.; Gliemann, G. Einführung in die Ligandenfeldtheorie. Akademische Verlagsgesellschaft, Frankfurt am Main, 1967.

Figgis, B.N.; Hitchman, M.A. Ligand Field Theory and Its Applications. Wiley-VCH, 2000.

Kober, F. Grundlagen der Komplexchemie. Otto Salle Verlag, Frankfurt am Main, 1979.

Gade, L. Koordinationschemie. Wiley-VCH, Weinheim, 1998.

Walton, P.H. Beginning Group Theory for Chemistry. Oxford University Press, 1998.

Cotton, F.A. Chemical Applications of Group Theory, third edition. John Wiley & Sons, 1990.

Schläfer, H.L.; Gliemann, G. Einführung in die Ligandenfeldtheorie. Akademische Verlagsgesellschaft, Frankfurt am Main, 1967.

Figgis, B.N.; Hitchman, M.A. Ligand Field Theory and Its Applications. Wiley-VCH, 2000.

## Association in the course directory

AC-2

*Last modified: Th 05.09.2019 12:57*