Introductory course designed primarily for BSc students. Topics covered include atoms, molecules and ions; stoichiometry; thermochemistry; atomic structure and quantum theory; periodic trends - atomic size, ionization, electron affinity; chemical bonding - Lewis structure, VSEPR, polarity, electronegativity, hybridization, hydrocarbons - alkanes, alkenes, alkynes, nomenclature, isomerism, functional groups.

A selection of experiments to accompany CHEM 1041.

A continuation of CHEM 1041. Topics covered include gas laws and kinetic theory; oxidation and reduction - oxidation numbers, balancing redox equations; equilibria - equilibrium constant K, Le Chatelier’s Principle, homo- and heterogeneous equilibria; acid-base equilibria - weak acids and bases, pH, common ion effect, buffers, solubility, selective precipitation; thermodynamics - entropy and free energy; electrochemistry - electrode potentials, galvanic and electrolytic cells, quantitative aspects.

A selection of experiments to accompany CHEM 1072.

Intended for students (with limited chemistry background) who wish to gain a better understanding of the chemistry in the world around them. The course will cover aspects of: atomic and molecular structure, the periodic table, what chemical names mean, balancing equations (and the relationships involved), acids and bases, nuclear chemistry, radiation and organic compounds. The concepts will be examined in the context of understanding "everyday" chemistry. Note: CHEM 1831 cannot be used to satisfy requirements of any Faculty of Science, Applied Science, and Engineering program.

Intended primarily for Engineering students who require an introduction to physical and inorganic chemistry. This course may cover thermochemistry, chemical bonding and molecular structure, gases, intermolecular forces and modern materials, chemical equilibria (acid and base, buffer and solubility), chemical kinetics, chemical thermodynamics, electrochemistry, and nuclear chemistry. 

Intended primarily for Engineering students who require an introduction to physical and inorganic chemistry. Laboratory topics may include: colligative properties, recycling, enthalpy, gas laws, WHMIS, titration, kinetics, solubility and corrosion. 

This is a project based course where students conduct research under the supervision of a chosen faculty member. Students must have declared a Science Major and must have a minimum CGPA of 3.7 to enter after first year or a minimum CGPA of 3.0 to enter after second year. Students will be provided with a list of projects and applicant's names will be forwarded to project supervisors. Applications must be made, by May 15th, to the Chairperson of the Department of Biological Sciences. Since enrolment may be limited, students are encouraged to plan for alternative courses in the case that no suitable project is available. A minimum of at least three scheduled hours per week is required and one seminar presentation will be required at the end of the academic term, as well as a written report. 

Protein structure and function, techniques for protein analysis, examples of important proteins, mechanisms and regulations of enzymatic activity, metabolism (basic concepts and design, followed by the study of a few pathways).

Introduction to experimental organic chemistry with emphasis on laboratory techniques for sample analysis, isolation, and purification of products; and chemical reactions.  

An introduction to the structure and properties of organic molecules. Topics include bonding, conformation, isomerism, stereochemistry, functional groups, nomenclature, and structure determination.

An introduction to the reactivity of organic molecules. Topics include reaction mechanisms, nucleophilic addition reactions, nucleophilic substitution reactions, electrophilic addition reactions, electrophilic substitution reactions, and reactions of enols and enolates. 

This course examines the fundamental principles underlying electronic, vibrational, and rotational spectra of molecules as well as magnetic resonance, mass spectrometry, optical rotation, etc. Principles of instrumentation will also be studied. Those concepts will then be practically applied in a laboratory setting.

Course will provide students with a chemical basis for understanding the natural environment and current environmental issues. Topics will include: the composition of the natural environment, the chemistry supporting environmental processes, and the main reactions of natural and anthropogenic chemicals in the atmosphere, water, and soils. Note: This course may be listed as either BIOL 3245 or CHEM 3245. Credit cannot be counted for both BIOL 3245 and CHEM 3245.

Overviews some information systems for hazardous materials (builds on WHMIS, introduces TDG and GHS). Introduces aspects of chemical inventory management. Emphasis on laboratory ethics (including environmental responsibilities, safe lab practices, reporting). Further work on chemical handling, storage and waste management. 

This course will examine the chemistry, function, biosynthesis and metabolism of primary metabolites. Classes of compounds covered will include carbohydrates, fatty acids, amino acids, peptides, proteins and nucleic acids. Note: This course may be listed as either BIOL 3435 or CHEM 3435. Credit cannot be counted for both BIOL 3435 and CHEM 3435.

Gives academically strong students (GPA of 3.3 or higher) an opportunity to pursue directed studies in specific areas and topics related to chemistry. These studies may involve any of the chemistry disciplines. The content and evaluation of each directed study will be determined through negotiation between a student and the supervising faculty member.

This course will examine the biosynthesis, biological activity and ecological significance of secondary metabolites. Topics include: the links between primary and secondary metabolic pathways; an overview of the mechanisms, chemistry and coenzymes involved in the biosynthesis of natural products; the acetate pathway; the Shikimate pathway; the mevalonate and methyl erythritol phosphate pathways; the alkaloids; and chemical ecology. Note: This course maybe listed as either CHEM 4435 or BIOL 4435. Credit cannot be counted for both CHEM 4435 or BIOL 4435.

The course will provide an overview of the pharmaceutical industry, the process of drug discovery and optimization, an overview of the properties and biological activity of therapeutic substances, and case studies of select drug classes such as antibiotic, anti-ulcers drugs and/or others.   

A laboratory course involving synthesis and purification of organic compounds, stereochemistry, isolation and structure elucidation of natural compounds (by both qualitative and spectroscopic methods).