McMaster University
Graduate Courses Print E-mail

The Department of Chemistry offers graduate courses in the form of modules, which are short quarter courses of approximately six week duration with 3 lectures per week. Approximately 20-25 different modules are offered every year in four sets, two in the Fall term (Sept - Dec) and two in the Winter term (Jan - Apr). The detailed course requirements for the MSc and PhD degrees are described in our General Regulations.

Brief Descriptions of All Graduate Modules

In the following list, modules marked with a (+) sign may be taken more than once for credit. Please refer to the List of Current Courses to see the selection of modules offered during the current academic year.

 

Computer Applications in Chemistry

Chem 703. Numerical Methods and Computational Chemistry
This course introduces problems of computational chemistry and their solution via numerical methods. Simple programming is used to implement these solutions. Simulation of molecular dynamics, optimization of molecular geometries, and Hamiltonian diagonalization are treated. (Instructor: Dumont)

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Topics in Analytical Chemistry

Chem 708. Analytical Separation Science
The principles and applications of modern chromatographic separations, including the interfacing of separations techniques with spectroscopic and mass spectrometric detectors. This course will focus primarily on gas chromatography and liquid chromatography, recognizing that these methods are still the principal separation techniques used today. The course will also discuss recent developments in chromatographic methods. Since the majority of the students who will take this course are non-specialists in this area, the course will focus on practical applications with a lesser emphasis on detailed theoretical aspects of chromatographic processes. (Instructors: McCarry)

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Chem 711. Chemometrics
The aim of this module is to introduce some modern statistical methods in chemistry. In many cases, we have masses of data, but the main problem is analysing and understanding it. With spreadsheet programs and other accessible software, it is now possible to do this routinely. Topics to be covered will include data acquisition, experimental design, filtering and fitting data to mathematical models. The approach will be fairly simple and open to students without a lot of sophisticated mathematical background. (Instructors: Britz-McKibbin)

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Topics in Inorganic Chemistry

Chem 717. Main Group Chemistry
The course content varies from year to year and is meant to reflect current developments in the field. Among the topics considered are main-group clusters species, hetero- and homo-polyatomic chalcogenide cations and anions of groups 3 - 5, sulfur-nitrogen rings and cages, multiple bonding among the main-group elements, weakly coordinating anions of the main-group and noble-gas chemistry. (Instructor: Schrobilgen)

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Chem 727. Symmetry, Physical Properties and Electronic Structure of Solids
This module will focus on advanced aspects of symmetry and electronic structure and their relationship to the physical properties.Topics to be covered will include electronic instabilities and the associated symmetry-breaking phenomena. The module is primarily aimed at Chemistry students but may also be of interest to students in Physics or Materials Science. Basic knowledge of solid-state chemistry is expected but not a pre-requisite. (Instructor: Mozharivskyj)

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Physical and Spectroscopic Methods in Chemistry

Chem 730. Theory of Crystallography
(co-requisite: Chem 736)
The study of single crystals, how they diffract X-rays, and how the diffraction patterns can be analyzed to provide the molecular and crystal structures of organic, organometallic, and inorganic solids. (Instructor: Britten)

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Chem 734. Applications of Mass Spectrometry in Organic Chemistry
This module is offered in alternating years and it deals with the principles and applications of organic mass spectrometry. Topics include ionization methods (EI,CI,FAB, MALDI, ESI), tandem mass spectrometry (MS/MS/MS), high resolution (HRP) mass spectrometry, tools to study reaction mechanisms and ion structures, and last but not least: a thorough introduction to the interpretation of unknowns both "ab initio" and with the help of databases. (Instructor: Terlouw)

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Chem 736. Molecular Structure Determination by Diffraction Methods
(co-requisite: Chem 730)
This module will show the student how to determine the structure of an unknown compound (preferably from the student's own research) using single crystal X-ray diffraction methods, how to prepare a report for publication, and how to critically examine published structures. (Instructor: Britten)

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Chem 737. Mass Spectrometry Theory

This module covers the basic theory, operation and performance of mass spectrometry instrumentation, as well as brief discussions of selected applications. Both ionization (EI, CI, API, MALDI) and mass analysis (sector, quadrupole, ion trap, time-of-flight, FTICR) techniques are discussed. This module aims to provide the specialist and non-specialist student with the tools to choose the most appropriate mass spectrometric approach for their problems, understand the experiments, and interpret the results. (Instructor: Green)

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Topics in Magnetic Resonance

Chem 740. Basic Theory of NMR
An introduction to the concepts and applications of pulsed Fourier transform nuclear magnetic resonance (NMR) spectroscopy. The module begins with a review of the basic NMR experiment and then proceeds to a description of the pulsed NMR technique and the use of Fourier transformation to generate the spectrum. The next section deals with a general description of the pulse NMR spectrometer and the parameters used in data acquisition and processing. The final section covers more traditional topics dealing with 1H and 13C chemical shifts, coupling constants and relaxation times with the emphasis on the structural information these parameters provide. This section will also illustrate some of the essential one-dimensional techniques used in analyzing NMR spectra (T1 measurements, spin decoupling, NOE difference spectra and 13C spectral editing). (Instructor: Berno)

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Topics in Organic Chemistry

Chem 754. Physical Organic Chemistry
An introduction to basic concepts in physical organic chemistry and the study of organic reaction mechanisms: kinetics and thermodynamics; thermochemistry; isotope effects; acid/base catalysis; linear free energy relationships. (Instructor: Leigh)

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Chem 760. Principles of Organic Synthesis
Introduction to synthesis; definitions, typical reagents, functional group interconversions; simple examples. Carbon-carbon bond forming processes; retrosynthesis and acceptor-donor approach. Examples of syntheses employing different strategies for molecules of medium complexity. (Instructors: McNulty)

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Topics in Polymer Chemistry

Chem 765. Advanced Polymer Chemistry
This course focuses on living polymerizations, including ionic polymerizations as well as living radical polymerizations such as Atom Transfer Radical Polymerization (ATRP) and Stable Free Radical Polymerization (SFRP). It also includes aspects of polymerizations in suspended phases and in interfacial systems. (Instructors: Adronov, Stover)

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Topics in Quantum Chemistry

Chem 770. Molecular Electronic Structure Theory
Modern theoretical and computational approaches to the electronic structure problem will be presented. Topics will include wave-function based methods (Hartree Fock, Configuration Interaction, Coupled Cluster, Many-Body (a.k.a. Moller-Plesset) Perturbation Theory), density-functional theory, and density-matrix based approaches. At the end of this course, students should be able to understand journal articles in quantum chemistry. (Instructor: Ayers)

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Topics in Physical Chemistry

Chem 778. Solid State Surface Science (+)
This module deals with the theoretical and experimental aspects of modern techniques for the characterization of the gas-solid interface. Several long range crystallographic and short range spectroscopic techniques will be discussed, selected from a list that includes LEED, AES, XPS, ELS, XAS, ion scattering and Rutherford backscattering. (Instructor: Kruse)

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Chem 799. Magnetochemistry

The origin of single ion magnetism is described as pertains to both d and f group elements. The van Vleck equation is derived and applied to non-interacting spin systems, i.e. paramagnetism. The case of interacting spins is treated for several cases depending upon the interests of individual class members. Recent topics have included dimers, trimer, etc., biomagnetism, low-dimensional systems, frustrated systems and supermagnetism. (Instructor: Greedan)

 

600-level Courses

These are 3-unit (one term) level-4 undergraduate courses which are also offered for graduate credit (2 modules). Extra work is required of graduate students enrolled in these courses (e.g. extra essay, presentation, and/or extra questions on the final exam). Graduate students must obtain a minimum grade of B- for credit to be allowed. MSc students may take only one 600-level course for credit during the course of their graduate studies.

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6OA3. Natural Products

A description of basic building blocks and reaction mechanisms involved in the (bio)synthesis of naturally occurring compounds.

Three lectures; one term

Prerequisite(s): CHEM BIO 3OA3

May be offered in alternate years.

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Chem 6OB3. Polymers and Organic Materials

Fundamental and modern polymerization methods, industrially and biomedically relevant polymers and their uses, will be covered. Emphasis will be placed on structure-property relationships.

Three lectures; one term

Prerequisite(s): One of CHEM 2BB3, 2OB3, 2OD3, CHEM BIO 2OB3
Antirequisite(s): CHEM 4PP3

May be offered in alternate years.

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Chem 6AA3. Recent Advances in Analytical Chemistry

Recent advances in analytical chemistry will include an introduction to chemometrics and multivariate analysis, as well as new developments in separation science and mass spectrometry.

Three lectures; one term

Prerequisite(s): CHEM 3AA3
Antirequisite(s): CHEM 4P03

May be offered in alternate years.

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Chem 6PA3. Molecular Driving Forces

The microscopic underpinnings of chemical, buiological and physical processes are explored using statistical thermodynamics, affording a deeper understandint of chamical and phase equilibria and kinetics.

Three lectures; one term

Prerequisite(s): CHEM 2PD3, 3PA3

May be offered in alternate years.

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Chem 6PB3. Computational Models for Electronic Structure and Chemical Bonding

Modern computational methods for studying atoms, molecules, and meterials.

Three lectures; one term

Prerequisite: CHEM 3PA3

May be offered in alternate years.


 

The following modules are offered from time-to-time as student demand dictates. These are techniques-oriented modules for which no formal credit is offered.

  • Modern Techniques in the Handling of Air-sensitive Compounds
  • Rudimentary Glassblowing