CHEM 440Chemical Problem Solving by Computer

1991–92 to 1993–94 3 calendars

Analysis of chemical problems, development of mathematical and numerical models and algorithms, implementation of programs using procedure-oriented languages (BASIC, FORTRAN, PASCAL), simulations and calculations on chemical processes, data reduction and treatment. Prereq: CS 102 or equivalent, good Standing in Year Two or higher of a chemistry program Formerly CHEM 380

Offered Fall · 1 class, 3 tutorial hours a week · 0.5 credit

• 1991–92 PDF p. 345
• 1992–93 PDF p. 342
• 1993–94 PDF p. 343

1975–76 to 1978–79 4 calendars

Another title: Group Theory, probably a different course under the same number (or a misread scan).

Basic group theory, irreducible representations, molecular symmetry groups, character tables, reduction of representations, These various concepts will be illustrated by application to specific examples. Prerequisite: Mathematics 31*

2 lectures, Fall term

• 1975–76 PDF p. 254
• 1976–77 PDF p. 222
• 1977–78 PDF p. 249
• 1978–79 PDF p. 244

1968–69 to 1972–73 5 calendars

Another title: Polymer Chemistry, probably a different course under the same number (or a misread scan).

Introductory concepts and definitions; polymer nomenclature; effects of intermolecular forces on polymer properties; molecular weight averages; step-growth polymerization; polymer constitution, configuration and conformation; radical chain-growth polymerization; viny] copolymerization; cationic, anionic and coordinate polyization. Prerequisites: Chemistry 236; 235 or 325. 2 lectures.

Graduate Programme in Chemistry

For both the M.Sc. and Ph.D. programmes, a student is expected to combine a thesis embodying the results of some original research with course work. A major field of study should be chosen from the following areas: analytical, inorganic, organic, biochemistry, and physical chemistry. Course work will be appropriate to the area selected and a research director should be chosen from

Analytical Chemistry

Inorganic Chemistry

Organic Chemistry

Biochemistry

Physical Chemistry

Theoretical Chemistry

Department of Chemistry 209

members of the department who are presently engaged in various fields of endeavour as listed.

Chemical instrumentation based on analog modules and on direct digital control; continuous analysis by spectrophotometric or electroanalytical techniques; complex ion systems useful in analysis; application of physical methods e.g., ion exchange, solvent extraction, to separation of metallic constituents in aqueous solutions; analysis of rocks, minerals and meteorites.

Studies on inorganic complexes in solution, magnetic susecptibility measurements of metallic complexes; structure determination by X-ray diffraction methods; solutions of metals in molten salts and other non-aqueous media; the chemistry of the lanthanides in nonaqueous solvents; isotopic exchange reactions, ion exchange kinetics and equilibria, nuclear chemistry.

Synthesis of organic substances by electrochemical techniques; abnormal Kolbe reaction of halogenocarboxylic acids; free radical chemistry in general and especially the synthesis and decomposition of peroxy and azo-compounds; studies on heterocyclic compounds; synthesis of natural products (especially alkaloids) and N-heteroaromatic substances; spectroscopic studies (using infrared, ultraviolet, e.s.r. and n.m.r. techniques) of molecular conformation and hydrogen bonding; synthesis and characterization of film-forming polymers; photochemistry; carbohydrate chemistry.

Effects of radiation on proteins and amino acids as studied by electron spin resonance and other techniques; synthetic and degradative studies on enzymes, peptides and proteins; nature of materials excreted by algae.

Studies in molten salt chemistry, especially mass transport phenomena; kinetics of polymer reactions; experimental and theoretical studies of surfaces, surface reactions and catalysis; quantum chemical calculations, methods and the physical nature of the chemical bond; electrochemistry and especially electroplating mechanisms and corrosion studies; spectroscopic studies of species in solution to determine their identity and contribution to the properties of the system; viscous and elastic properties of thermoplastics;; influence of molecular structure and morphology on mechanical properties of polymers. N.M.R. studies of chemical systems.

Transport Phenomena. (Senftleben, and Senftleben-Beenakker effects). Statistical and Quantum Theory. Relaxation Processes in Gases. Ab initio calculations on Simple Molecules.

Details regarding these programmes and the faculty members engaged in them are to be found in a booklet prepared by the Chemistry Department. The booklet also discusses admission procedures, programmes of study, teaching and research facilities and equipment and is sent to every potential graduate student who applies for admission. New areas of research are usually added each year.

• 1968–69 PDF p. 169
• 1969–70 PDF p. 159
• 1970–71 PDF p. 209
• 1971–72 PDF p. 221
• 1972–73 PDF p. 310