
Chemistry
Faculty of Science, Engineering and Architecture
Study the properties of the matter which make up living and non-living things with a degree in Chemistry.

Program Overview
Become a chemist and be a leader in several challenging and in-demand careers for today’s technology-oriented society.
What is chemistry?
Chemistry is the study of matter, which is everything around us, and how it changes. It looks at the tiny particles, the atoms and molecules, that make up different substances and how they interact with each other. Chemists explore things like how substances combine, break apart, or react under different conditions, and they use this knowledge to create new materials, medicines, and solutions to everyday problems.
What you’ll learn
As a student in the Chemistry program at Laurentian University, you’ll gain a comprehensive understanding of the structure and properties of molecules. In the first two years of the program, you will acquire a strong foundation in the basic principles of Chemistry. You’ll then use this knowledge in the final two years to gain a deep understanding of subjects such as instrumental analysis, spectroscopy, medicinal chemistry, green chemistry, natural products chemistry and many more.
Hands-on experience
Our small class size provides unique opportunities, such as paid teaching assistantships, one-on-one instruction during labs, and the use of research-grade equipment. With over 400 hours of required lab work, an honours thesis and the option of co-op and internship placements, our students acquire hands-on skills which are sought after by employers.
When you graduate
When you complete the program, you’ll graduate with the skills needed to pursue careers in the health professions, R&D and quality control for a variety of industries, science communication, education and many others.
The program provides a solid foundation for medical school, dental school, optometry school, and veterinary school. You can also continue your studies in biology with our Master of Science in Chemical Sciences program or pursue a Master of Science Communication.
Take advantage of many experiential learning opportunities such as summer jobs in research labs, an honours thesis, a co-op option, and internships.
Small classes provide unique opportunities, such as paid teaching assistantships, one-on-one instruction in labs, and the use of research-grade instrumentation.
Certificate in Environmental Solutions
Explore the intersection of science and environmental advocacy through the certificate, choosing between courses in Biology, Chemistry, Engineering, History, Law, and more. This certificate is available to students in all programs and equips students with the knowledge to address pressing environmental challenges.
Career Outlook
With a chemistry degree, you can work in healthcare, biotechnology, environmental science, or research. Some career options include, but are not limited to:
- Chemist (analytical, cosmetic, flavour, environmental, medicinal, organic, inorganic, polymer, etc.)
- Clinical lab technologist
- Healthcare professional, such as a dentist, doctor, optometrist, pharmacist, etc. (requires advanced studies)
- Laboratory technician
- Patent lawyer (requires law school)
- Pharmaceutical scientist
- Quality control specialist
- Research and development officer (life sciences, pharmaceutical and biomedical research, biotechnology)
- Science communicator
- Science teacher
- Toxicologist

I chose Laurentian for its focus on hands-on laboratory experiments. Being able to perform experiments has facilitated my professional growth as a chemist.
At Laurentian University, I became involved in the Chemistry and Biochemistry club and soon became president. The club organizes exciting events throughout the year that both the students and the faculty participate in. Not only have these events helped me make new friends, they have also helped me get to know my professors. This has encouraged me to ask more questions, participate more in class, and overall, enhanced my learning experience.
The Chemistry and Biochemistry department at Laurentian University has truly provided me with experiences and opportunities that have helped and will continue to help me thrive in my time at Laurentian University.
Kelsey Whidden
Program Details
Program language:
English
Delivery method:
On Campus
Please contact the email above, and our recruitment team will get back to you!
More About The Program
A flowchart of the program can be found here.
Admission Requirements
Ontario High School Applicants
Program Prerequisites:
- 1 grade 12 English U/M course; 1 grade 12 4U Advanced Functions; 2 grade 12 U Science courses or 1 Science + 1 Math; 2 other grade 12 U/M courses (Chemistry and Calculus recommended)
- A minimum overall average of 70% in the 6 best grade 12 U/M courses
Additional information for applicants who have completed Advanced Placement courses.
Additional information for applicants who have completed the International Baccalaureate.
Applicants from outside an Ontario High School
Canadian High School Applicants from outside Ontario
How To Apply
Canadian Applicants
If you are a Canadian citizen or permanent resident, you must complete your application through the Ontario Universities Application Center (OUAC).
For detailed instructions on the application process, see the How to Apply: Canadian Undergraduate Applicants page.
Apply Now as a Domestic Applicant
International Applicants
If you’re an international applicant, you must fill out the International Application Form.
For detailed instructions on the application process, see the How to Apply: International Students page.
Degree Options
Bachelor of Science (Honours) in Chemistry
Students must follow these regulations in order to meet graduation requirements for the BA or B.Sc.
Specialization in Chemistry
First Year
CHMI 1006E General Chemistry I*
CHMI 1007E General Chemistry II
MATH 1036E Calculus I**
MATH 1037E Calculus II
PHYS 1006E Introductory Physics I
PHYS 1007E Introductory Physics II
12 elective credits#
* Students lacking grade 12 4U Chemistry must first take CHMI 1031.
**Students lacking grade 12 4U Advanced Functions or who have attained a grade of less than 60% must first take MATH 1912
Second Year
CHMI 2117E Introductory Quantitative Analysis
CHMI 2316E Inorganic Chemistry I
CHMI 2426E Organic Chemistry I
CHMI 2427E Organic Chemistry II
CHMI 2516E Introductory Physical Chemistry I
CHMI 2517E Introductory Physical Chemistry II
MATH 1057E Linear Algebra I
9 elective credits#
§This program has a co-op option. Please contact the School of Natural Sciences for more information.
Third Year
CHMI 2227E Biochemistry I
CHMI 3116E Instrumental Techniques in Chemical, Biochemical and Environmental Sciences
CHMI 3316E Inorganic Chemistry II
CHMI 3317E Advanced Inorganic Chemistry
CHMI 3416E Spectroscopic Techniques in Organic Chemistry
CHMI 3537E Introduction to Quantum Chemistry
NATS 3106E Scientific Writing and Communication
STAT 2246E Statistics for Scientists
3 credits from:
ENGR 2026E Engineering Materials
MATH 2037E Advanced Calculus
MATH 2066E Introduction to Differential Equations
3 elective credits#
§This program has a co-op option. Please contact the Department of Chemistry and Biochemistry for more information.
Fourth Year
NATS 4005E Honours Thesis*
OR NATS 4106E Literature Review and 3cr CHMI at the 3rd or 4th year level
24 elective credits#
* A student must have at least a cumulative GPA of 6 (B) in all CHMI courses to take NATS 4005.
# Elective credits
- students must include a minimum of 12 credits from the Arts
- students must include a minimum of 3 credits in Biology, Geology, Engineering, or Environmental Science
- NATS 3206EL (Internship) can be taken to satisfy this requirement
- SCOM 4006EL is recommended as an elective
- students must take a minimum of 15 elective CHMI credits at the third or fourth year level in at least 3 different chemistry sub-disciplines.
- General Chemistry (CHMI 30XX/40XX)
- Analytical Chemistry (CHMI 31XX/41XX)
- Inorganic Chemistry (CHMI 33XX/43XX)
- Organic Chemistry (CHMI 34XX/44XX)
- Physical Chemistry (CHMI 35XX/45XX)
Notes:
Many universities require a minimum of 18 CHMI credits at the fourth year level for admission to graduate programs.
Students may not exceed 48 credits at the 1000 or 9100 level in their degree program.
Students enrolled in the Specialization in Chemistry may choose to add a stream to their degree program. Streams are available in Industrial Chemistry, Geochemistry, Material Chemistry, and Environmental Chemistry. This feature is designed to emphasize the various interfaces that exist between Chemistry and other disciplines in Science and Engineering, and allows students to tailor their program in accordance with their career objectives. Students choosing a stream will take the prescribed courses within their elective credits. They should consult with an academic advisor when planning their program of study and notify the Office of the Registrar of their intention to complete a stream.
Industrial Chemistry Stream
ENGR 2036E Engineering Thermodynamics I
ENGR 2276E Chemical Process Calculations
6 credits from:
ENGR 2106E Introduction to Mineral Resources Engineering
ENGR 2227E Chemical Engineering Thermodynamics
ENGR 3226E Hydrometallurgy
ENGR 3246E Corrosion and Protection of Metals
ENGR 3416E Mass Transfer
Geochemistry Stream
GEOL 1006E Introductory Geology I
GEOL 2126E Mineralogy I
GEOL 2807E Geochemistry I
3 credits from:
CHMI 2126E Environmental Chemistry
CHMI 3326E Aquatic Chemistry
CHMI 3006E Green Chemistry
GEOL 4127E Advanced Mineralogy
GEOL 4706E Hydrogeology
Material Chemistry Stream *
12 credits from:
ENGR 1056E Applied Mechanics I
ENGR 2026E Engineering Materials
ENGR 2076E Mechanics and Strength of Materials I
GEOL 1006E Introductory Geology I
GEOL 2126E Mineralogy I
PHYS 3046E Mechanical Properties of Solids and Fluids
PHYS 4426E Introductory Solid State Physics
* Students should include CHMI 4396 as a CHMI elective from the CHMI 4300 series.
Environmental Chemistry Stream **
CHMI 2126E Environmental Chemistry
GEOL 1006E Introductory Geology or BIOL 1506E Biology I
6 credits from:
BIOL 2356E Principles of Ecology
BIOL 3056E Mineral Exploitation and the Biosphere
BIOL 4076E Ecosystem Ecology
CHMI 2041E Introductory Environmental Chemistry
CHMI 3006E Green Chemistry
CHMI 3326E Aquatic Chemistry
CHMI 4186E Topics in Radiochemistry
CHMI 4286E Environmental Biochemistry
ENGR 2106E Introduction to Mineral Resources Engineering
ENGR 3126E Occupational Health Engineering
ENGR 4117E Engineering, Technology and Society
ENSC 1406E Earth's Environmental Systems
ENSC 3136E Watershed Hydrology
ENSC 3226E Environmental Radioactivity
ENSC 3246E Aquatic Ecology
ENSC 4116E Environmental Remediation
GEOL 3397E Introductory Soil Science
GEOL 4706E Hydrogeology
** Students should include CHMI 4197 as a CHMI elective from the CHMI 4100 series.
Co-Op Schedule
In general, there are two times at which students can take a Co-Op placement (see table below):
- a four-month placement during the summer after second year; and
- a twelve to sixteen month placement after third year.
A 2nd year placement is not a requirement for eligibility to enroll in a 3rd year placement.
|
Fall term September to December |
Winter term January to April |
Summer May to August |
First year |
Academic term 1 |
Academic term 2 |
|
Second year |
Academic term 3 |
Academic term 4 |
Co-Op 2nd year placement CHMI 0000EL |
Third year |
Academic term 5 |
Academic term 6 |
Start of 3rd year placement CHMI 0000EL |
Co-Op year |
3rd year placement CHMI 0000-EL |
3rd year placement CHMI 0000-EL |
3rd year placement CHMI 0000-EL |
Fourth year |
Academic term 7 |
Academic term 8 |
|
Students who successfully complete 16 months (four terms of CHMI 0000EL) of Co-Op are eligible to receive a discipline specific Co-Op degree. This will appear on their university transcript.
Option in Pharmaceutical Chemistry, see Program page
Major in Chemistry
CHMI 1006E General Chemistry I*
CHMI 1007E General Chemistry II**
18 credits from List A
12 credits from List B at the 3000 level
6 credits from List B at the 4000 level
12 first year Science credits:
MATH 1036E Calculus I**
MATH 1037E Calculus II or MATH 1057E Linear Algebra I
PHYS 1006E Introductory Physics I
PHYS 1007E Introductory Physics II
12 credits from Arts
54 elective credits#
* Students lacking grade 12 4U Chemistry must first take CHMI 1031.
** Students lacking grade 12 4U Advanced Functions or who have attained a grade of less than 60% must first take MATH 1912.
# Students must complete either a minor (24 credits) or a second major (42 credits) from the courses not used in the Chemistry major.
Note: Students may not exceed 48 credits at the 1000 or 9100 level in their degree program.
Bachelor of Science (General) in Chemistry
Students must follow these regulations in order to meet graduation requirements for the BA or B.Sc.
Concentration in Chemistry
First Year
CHMI 1006E General Chemistry I*
CHMI 1007E General Chemistry II
MATH 1036E Calculus I**
MATH 1037E Calculus II
PHYS 1006E Introductory Physics I
PHYS 1007E Introductory Physics II
12 elective credits#
* Students lacking grade 12 4U Chemistry must first take CHMI 1031.
**Students lacking grade 12 4U Advanced Functions or who have attained a grade of less than 60% must first take MATH 1912.
Second Year
CHMI 2117E Introductory Quantitative Analysis
CHMI 2316E Inorganic Chemistry I
CHMI 2426E Organic Chemistry I
CHMI 2427E Organic Chemistry II
CHMI 2516E Introductory Physical Chemistry I
CHMI 2517E Introductory Physical Chemistry II
MATH 1057E Linear Algebra I
9 elective credits#
Third Year
CHMI 2227E Biochemistry I
CHMI 3316E Inorganic Chemistry II
CHMI 3317E Advanced Inorganic Chemistry
CHMI 3416E Spectroscopic Techniques in Organic Chemistry
CHMI 3537E Introduction to Quantum Chemistry
MATH 2037E Advanced Calculus*
STAT 2246E Statistics for Scientists
9 elective credits#
* Students may take MATH 2066 or ENGR 2026 in lieu of MATH 2037
# Students must include a minimum of 12 credits from the Arts.
Note: Students may not exceed 48 credits at the 1000 or 9100 level in their degree program
Minor in Chemistry
CHMI 1006E General Chemistry I*
CHMI 1007E General Chemistry II**
12 credits from CHMI 2000 level courses (List A)
6 credits from CHMI 3000 or 4000 level courses (List B)
Minor in Environmental Chemistry
CHMI 2117E Introductory Quantitative Analysis
Take 2 of the following 3 courses:
CHMI 2316E Inorganic Chemistry I
CHMI 2426E Organic Chemistry I
CHMI 2516E Introduction to Physical Chemistry
NOTE: Students taking one or more of these courses as part of another program must replace them with
courses taken from the list of elective courses in Environmental Chemistry.
Take 5 of the following 8 courses:
CHMI 2041E Introductory Environmental Chemistry
CHMI 2126E Environmental Chemistry
CHMI 3006E Green Chemistry
CHMI 3116E Instrumental Techniques for Chemical, Biochemical and Environmental Sciences
CHMI 3326E Aquatic Chemistry
CHMI 4186E Topics in Radiochemistry
CHMI 4197E Environmental Analytical Chemistry
CHMI 4286E Environmental Biochemistry
*Students may not retain credits for both CHMI 2041 and CHMI 2126.
Students must have completed CHMI 1006 and CHMI 1007 in order to take the Minor in Environmental Chemistry.
List A
CHMI 2117E Introductory Quantitative Chemistry
CHMI 2227E Biochemistry I
CHMI 2316E Inorganic Chemistry I
CHMI 2426E Organic Chemistry I
CHMI 2427E Organic Chemistry II
CHMI 2516E Introductory Physical Chemistry I
CHMI 2517E Introductory Physical Chemistry II
CHMI 3316E Inorganic Chemistry II
List B
CHMI 3031E Industrial Inorganic Chemistry
CHMI 3116E Instrumental Techniques in Chemical, Biochemical and Environmental Sciences
CHMI 3317E Advanced Inorganic Chemistry
CHMI 3326E Aquatic Chemistry
CHMI 3317E Advanced Inorganic Chemistry
CHMI 3416E Spectroscopic Techniques in Organic Chemistry
CHMI 3417E Topics in Organic Chemistry
CHMI 3427E Introductory Medicinal Chemistry
CHMI 3446E Chemical Pharmacognosy
CHMI 3536E Principles of Atomic and Molecular Spectroscopy
CHMI 3537E Introduction to Quantum Chemistry
CHMI 4100 series – 3 credits
CHMI 4300 series – 3 credits
CHMI 4400 series – 3 credits
CHMI 4500 series – 3 credits
* Students lacking grade 12 4U Chemistry must first take CHMI 1031.
Certificate in Environmental Chemistry
CHMI 4286E Environmental Biochemistry
12 credits from:
ECON 1006E Introduction to Microeconomics
ECON 1007E Introduction to Macroeconomics
ECON 2057E Environmental Economics and Policies
GEOG 1026E Introduction to Physical Geography
JURI 1105E Introduction to Legal Studies
JURI 2316E Environmental Law
PHIL 2217E Environmental Ethics
15 credits from:
BIOL 1506E Biology I
BIOL 2356E Principles of Ecology
BIOL 3056E Mineral Exploitation and the Biosphere
CHMI 2041E Introductory Environmental Chemistry
ENGR 2106E Introduction to Mineral Resources Engineering
ENGR 3126E Occupational Health Engineering
ENGR 4117E Engineering, Technology and Society
GEOL 1007E Introductory Geology II
GEOL 3397E Introductory Soil Science
GEOL 4706E Hydrogeology
§ Students interested in the Co-Op program must:
- Be in good academic standing (not on probation, etc.) and enrolled in the Specialization in Chemistry, or in the Specialization in Chemistry (Pharmaceutical Chemistry option);
- Have a cumulative GPA of at least 6.0;
- At the beginning of the placement, must have completed the first two years for a second-year placement or first three years for a third-year placement;
- Must have passed the required program courses at the end of the academic year leading up to their placement.
Students who have successfully completed 16 months (four terms) of Co-Op are eligible to receive a discipline specific Co-Op degree. This will appear on their university transcript.
Sample Courses
First-year students who have not taken Calculus and Vectors in grade 12 are strongly advised to take MATH 1912 before taking MATH
1036. First-year students who have not taken Chemistry in high school are strongly advised to take CHMI 1031 before taking CHMI 1006.
Some upper-year chemistry courses are not offered every year. Third-year students should consult with their academic advisor before
making their course selection.
A list of required courses in this program is available here.
This course provides an introduction to the fundamental principles of chemistry. Topics include atomic and molecular structure, nuclear chemistry, stoichiometry, the periodic table and periodicity, and the properties of solutions. PREREQ: Grade 12U level chemistry or CHMI 1041 or permission of the department. (lec 3, tut 1, lab 2) cr 3.
This course is a continuation of CHMI 1006. Topics include thermochemistry, chemical thermodynamics, kinetics, chemical equilibrium, acid-base chemistry, buffer solutions, electrochemistry and introductory organic chemistry. PREREQ: CHMI 1006 or 1041 (min. 80%). (lec 3, tut 1, lab 3) cr 3.
This course provides an introduction to the underlying concepts of chemistry for the student with no background in chemistry. Topics include the states and properties of matter, the development of atomic theory and the periodic table, chemical equations, and ionic and covalent bonding (Lewis structures and the concept of molecular shape based on Valence Shell Electron Pair Repulsion). These discussions are followed by a brief introduction to the properties and manufacturing of materials of the heavy chemicals industry including acids, bases, salts, metals, and polymers. cr 3. Available only through the Centre for Continuing Education. Not available for credit for students in Chemistry or Biochemistry programs. Students may not retain credit for more than one of CHMI 1031 and CHMI 1041.
This course provides an introduction to the main classes of organic compounds. Nomenclature and chemical bonding as applied to carbon compounds are explained. Reaction types and concepts such as functional group and stereochemistry are discussed. The properties of organic molecules are related to their structural features. PREREQ: CHMI 1031, 1041 or equivalent. cr 3. Offered through the Centre for Continuing Education. Not available for credit for students in Chemistry or Biochemistry programs. Students may not retain credit for more than one of CHMI 1032 and CHMI 1202.
This course prepares students with little or no background in chemistry for CHMI 1202. Topics include the classification of matter, atomic structure, ionic and covalent bonding with an emphasis on the structure of organic molecules, acid-base equilibria including the role of pH and buffers in the health sciences, nuclear chemistry, nuclear energy, stoichiometry, the mole concept, solutions and chemical equilibria and their roles in the health sciences. (lec 3, lab/tut 2) cr 3. Students may not retain credit for more than one of CHMI 1031 and CHMI 1041.
This course provides an introduction to organic chemistry with emphasis on the structure, physical properties, nomenclature and chemical reactions of alkanes, alkenes, alkynes, cyclic aliphatic and aromatic compounds, alcohols, ethers, aldehydes, ketones, carboxylic acids, amines as well as select sulfur and phosphorus-containing compounds. It examines the structure and function of common carbohydrates such as glucose and its polymers, amino acids, peptides and proteins, an introduction to enzymes, DNA and RNA, the problem of DNA replication and protein synthesis. PREREQ: Grade 12 U level credit in Chemistry or CHMI 1041. (lec 3, lab/tut 2) cr 3. Students may not retain credit for more than one of CHMI 1032 and CHMI 1202.
In this course, the structure, properties and importance of the following classes of natural products will be discussed: amino acids, peptides and proteins, carbohydrates, lipids, terpenes, steroids, alkaoids and flavonoids. The structure and importance of some enzymes, vitamins and hormones will also be presented. The course will also include an introduction to metabolism and biological energy production. PREREQ: CHMI 1032 or equivalent cr 3. This course is not a credit course for students enrolled in a Chemistry or Biochemistry program.
This course introduces the basic concepts of environmental chemistry and natural ecosystems. The structure of the atmosphere and the important photochemical reactions occurring in the troposphere and the stratosphere, as well as the consequences of the ozone layer depletion, the continuous increase of carbon dioxide emissions and acid rain, are discussed. The basic concepts of limnology and aquatic chemistry are introduced. Eutrophication and water pollution by trace metals are also studied. Pollution by organic compounds is discussed using soils as examples. Some techniques of wastewater treatment and pollution remediation are discussed. PREREQ: CHMI 1202, 1032 or 1007. cr 3. This course is not a credit for students enrolled in the chemistry or Biochemistry program.
This course examines the theory and techniques of classical quantitative analysis, including gravimetry and precipitation titrations, volumetric analysis, oxidation-reduction titrations, complexometric titrations, as well as the treatment of data. Introductory notions of instrumental techniques are presented. PREREQ: CHMI 1006/7. Students registered in the specialized program in Chemistry with an average of at least 80% in CHMI 1006 may take CHMI 2117 in lieu of CHMI 1007. (lec 3, lab 3) cr 3.
This course is designed for nursing students to develop an appreciation, largely on the basis of case studies, of the relationship between various common diseases, the underlying biochemistry and the clinical tests used in their diagnosis. PREREQ: Grade 12 U level Chemistry, CHMI 1041 or CHMI 1031, or equivalent. (lec 3, lab, tut 3) cr 6. Not available for credit for students in Chemistry or Biochemistry programs
This course introduces the structure and function of proteins and nucleic acids. Topics include protein structure and function, nucleic acid chemistry, DNA and its replication, the genetic code and protein synthesis, regulation of gene expression, cloning and gene isolation, DNA sequencing, and enzyme kinetics. PREREQ: CHMI 2426. (lec 3, lab 3) cr 3.
This course presents an overview of the periodic table and the periodic properties of the elements. The various types of chemical bonding and the structures of solids are covered. A systematic study of the properties and chemical reactions of the Main Group elements is included. PREREQ: CHMI 1006/7. (lec 3, lab 3) cr 3.
This course presents an introduction to organic chemistry. Topics include structure and bonding, nomenclature, stereochemistry, and an introduction to the chemistry of a few classes of organic compounds. PREREQ: CHMI 1006/7. (lec 3, lab 3, tut 1) cr 3.
This course includes a detailed investigation of the reactions of hydrocarbons and monofunctional organic compounds. The factors which affect these reactions are also discussed. PREREQ: CHMI 2426. (lec 3, lab 3, tut 1) cr 3.
This course introduces the principles of chemical thermodynamics including the first, second and third laws of thermodynamics and the relations of thermodynamic functions to chemical equilibria in the ideal and nonideal solid, liquid and gaseous states. It includes elementary applications of the phase rule. PREREQ: CHMI 1006/7 and MATH 1036/7. (lec 3, lab 3, tut 1) cr 3. Students may not retain credit for both CHMI 2516 and CHMI 2526.
This course introduces the physico-chemical principles of electrochemistry, chemical kinetics, surface and colloid chemistry. PREREQ: CHMI 1006/7 and MATH 1036/7. (lec 3, lab 3, tut 1) cr 3. Students may not retain credit for both CHMI 2517 and CHMI 2527.
This course introduces the principles of chemical thermodynamics including the first, second and third laws of thermodynamics and the relations of thermodynamic functions to chemical equilibria in the ideal and nonideal solid, liquid and gaseous states. It includes elementary applications of the phase rule. PREREQ: CHMI 1006/7 and MATH 1036. (lec 3, lab equivalent workload, tut 1) 3 cr. No credit for students in Chemistry or Biochemistry programs. Students may not retain credit for both CHMI 2526 and CHMI 2516.
This course consists of an introduction to the physiochemical principles of electrochemistry, chemical kinetics, and surface and colloid chemistry. PREREQ: CHMI 1006/1007 and MATH 1036/1037. (lec 3, tut 1) cr 3. This course cannot be used for credit by students enrolled in the BSc Chemistry or Biochemistry program. Students cannot retain credit for both CHMI 2527 and CHMI 2517.
This course describes the main aspects of the chemistry and industrial operations of the production of inorganic chemicals. It is designed to provide an understanding of the present state of the chemical industry in terms of production of fine and heavy inorganic chemicals. PREREQ: CHMI 1031/2, or CHMI 1041 and 1202, or CHMI 1006/7. (lec 3) cr 3. May be chosen as an elective for students in Biochemistry and Chemistry. Students may not retain credit for both CHMI 3031 and CHMI 3030.
The course presents the principles and components of modern instruments currently used in chemical, biological, biochemical and environmental sciences, including forensic and pharmaceutical sciences to measure and characterize elements, ions, small and large molecules and compounds. It covers the main divisions of instrumental anyalysis based on: 1) separation techniques such as gas, liquid and supercritical chromatography, electrophoresis, gel permeation/filtration; 2) spectroscopy, spectrometry and optical phenomena such as ultra-violet, visible, infra-red, luminescence and fluorescence techniques, atomic spectrometry, surface plasmon resonance, X-ray techniques, radioactivity measurements, mass spectrometry; and 3) electrochemical methods based on potentiometry, voltammetry and biosensors. The interfacing of instruments (hyphenated techniques) is also covered and numerous applications are presented. PREREQ: CHMI 2117. (lec 3, lab 3) cr 3.
This course will cover advanced concepts in genome structure and function. The topics to be covered include DNA structure, structure of chromatin, unique and repetitive sequences in genomic DNA, DNA replication, repair and recombination and the control of gene expression. PREREQ or COREQ: CHMI 3226. Accepted as a credit towards a program in Biology. Students may not retain credit for both CHMI 3217 and CHMI 4216. Lecture (3.00). Equivalent to CHMI-4216FL, CHMI-4216EL, CHMI-4216EL, CHMI-4216FL. Prerequisites: take CHMI-2227EL.
Topics include: intermediary metabolism of carbohydrates, lipids, and amino acids; regulation of metabolism; membrane structure and functions; transmembrane signalling and photosynthesis. PREREQ: CHMI 2227 & CHMI 2427 or 2425. (lec 3, lab 3) cr 3 Lecture (3.00). Equivalent to CHMI-3226FL, CHMI-3226EA.
This course will give students hands-on experience with the techniques used in the biochemistry laboratory. The following techniques will be introduced: cell fractionation, protein and nucleic acid extraction and analysis, use of radioisotopes in biochemistry, spectroscopic techniques, preparation and characterization of liposomes and recombinant DNA techniques. PREREQ: successful completion of the second year in the biocchemistry program and CHMI 3226. (lab 6) cr 3. Lab (3. 00).
Students will study various concepts dealing with how the body interacts with drugs. They will first learn the routes of administration for drugs based on physico-chemical properties. They will then be introduced to the basic concepts of pharmacokinetics, pharmacodynamics and drug distribution, metabolism and elimination. Finally, the mechanism of action of drugs on the central nervous, cardiovascular, renal, gastrointestinal, immune and respiratory systems, and toxicology of drugs will be reviewed. PREREQ: CHMI 3226 and CHMI 3416. (lec 3) cr 3. Lecture (3.00).
This course addresses more advanced concepts in inorganic chemistry including electron counting rules for organometallic compounds and the isolobal concept. The synthesis and properties of organometallics and metal clusters are considered, as well as their use in homogeneous industrial cataysis. PREREQ: CHMI 2317. (lec 3, lab 3) cr 3. Lecture (3.00), Lab (3.00). Equivalent to CHMI-3317EL, CHMI-3317FL.
This course introduces the principles of aquatic chemistry of surface, soil and ground waters. Topics include the hydraulic cycle and cycling of elements in nature, ionic constituents of natural waters, solution chemistry, acid-base chemistry, precipitation and dissolution, hydrolysis of cations, the carbonate system, redox principles, and geochemical computer modelling. Applications to waste water treatment, water pollution/ contamination and related environmental problems will be examined. PREREQ: CHMI 2316 or GEOL 2807. (lec 3) cr 3.
This course covers the spectroscopic methods used to determine the structure of organic compounds. The techniques presented include ultraviolet-visible (UV-Vis), infrared (IR) and nuclear magnetic resonance (NMR) spectroscopies and mass spectrometry (MS). PREREQ: CHMI 2427. (lec 3, lab 3) cr 3.
This course examines condensation reactions involving carbanions and their application to synthesis, the chemistry of selected polyfunctional compounds and heterocyclic compounds, as well as molecular rearrangements and their mechanisms. Includes a study of the properties of the reactive intermediates in organic chemistry, photochemistry and the chemistry of organometallic compounds. PREREQ: CHMI 3416. (lec 3, lab 3) cr 3.
Explores the basic concepts of medicinal chemistry. An understanding of structure and stereochemistry and of chirality and drug design is developed. Drug activity is discussed in general terms of structure-activity relationships such as observed in the interaction of enzymes with substrates and inhibitors, and receptors with agonists and antagonists. Selective drugs and their mode of action include sulfa drugs, B-lactam antibiotics, agents to control Parkinson?s disease and anticancer drugs. PREREQ: CHMI 2427 and 2227. (lec 3) cr 3 Lecture (3.00).
This course presents advanced aspects of modern spectroscopy for the characterization of molecular structure and dynamics. It begins with an exposition of group theory, character tables and symmetry coordinates applied to the prediction of infrared and Raman activity. The accurate simulation of vibrational spectra using modern computational chemistry is outlined. The course discusses advances in photoelectron and electron- impact spectroscopy, pump-probe techniques for femto- and attosecond molecular and electronic dynamics, and new developments in single-molecule fluorescence spectroscopy. Also covered are modern techniques for single-molecule manipulation involving the use of scanning-probe microscopes, as well as optical and magnetic tweezers. PREREQ: CHMI 3537 (lec 3) cr 3. Lecture (3.00). Equivalent to CHMI-3536FL.
Examines the general mathematical principles of quantum chemistry and the application of these principles in interpreting atomic and molecular structure. PREREQ: CHMI 1006/7 & MATH 1036/7. MATH 1057 is recommended. (lec 3, lab 3) cr 3 Lecture (3.00). Equivalent to CHMI-3537FL.
This course examines coordination chemistry with emphasis on the d-block elements, including structure, reaction mechanisms, kinetics, and spectroscopy. Various bonding models such as valence bond theory, crystal/ligand field theory and molecular orbital theory are described. Electronegativity models, acid/base concepts, elements of symmetry (point groups) as well as aspects of organometallic chemistry, industrial processes and bioinorganic chemistry are also discussed. PREREQ: CHMI 2316. (lec 3, lab 3) cr 3. Students may not retain credit for both CHMI 2317 and CHMI 3316.
This course covers the 12 principles of green chemistry, atom economy and methods to reduce toxicity and wastes. Synthetic routes using green reagents, catalysts and solvents as well as renewable resources and alternative energy sources are examined. The application of green chemistry in major industrial processes is considered in the context of implementing clean technology and sustainability. Pre-req: CHMI 2426 and CHMI 2316. (lec 3) cr 3.
This course is designed for students enrolled in a science program to gain practical experience in their field of study. The placement must be approved by the course instructor. (exp 3) 3cr. PREREQ: Having completed at least 60 cr of a Bachelor of Science degree. Students cannot use their NATS 4005 lab experience to satisfy the requirements for NATS 3206.
This course will review the fundamental aspects of radioactivity, plus specific instrumentation and chemical analysis. The review topics include: types of ionizing radiation, units, nuclear stability, binding energy, growth and decay. The instrumentation and analysis will focus primarily on liquid scintillation and gamma spectroscopy analysis, the selection of energy range for quantification, counting statistics, efficiency correction (e.g. quenching), and background correction. Advanced topics include reactor life cycle and nuclear waste management, plus other topics that may vary from year to year: alpha spectroscopy; sample preparation techniques, decay chains (alpha emitters), isotope geology and dating, environmental actinide chemistry, etc. PREREQ: CHMI 3116 and MATH 2246 or CHMI 2516. (lec 3, lab 3) cr 3.
This course covers the analysis of environmental samples from sources such as lakes, rivers, sediments and effluents. Methods of studying the speciation of various elements present in the samples are also examined. Prerequisite: CHMI 3116E. (lec 3) cr 3.
This course will enable students to learn and apply several bioinformatics tools to the study of genomes and proteomes. The topics covered will include the sequencing and annotation of genomes, characterization of proteomes, comparative methods for sequence analysis, phylogenetic analysis, predictive methods for protein and nucleic acid sequence analysis, comparative methods for gene expression analysis and functional genomics. PREREQ: CHMI 3217. (3h) cr 3 Students may not retain credit for both CHMI 4206 and CHMI 3206. Lecture (3.00). Equivalent to CHMI-3206EL.
A discussion of the structure and function of membrane systems, such as myelin, plasma, mitochondrial, chloroplast and bacterial membranes. Examines the dynamic aspects associated with membranes such as transport of ions and metabolites, the transduction of energy and receptor-effector interactions. PREREQ: CHMI 3226. (lec 3) cr 3 Lecture (3.00). Equivalent to CHMI-4217FL.
This course is an introduction to several of the modern laboratory techniques involved in the manipulation of the DNA molecule. The following topics will be discussed: complimentary DNA and genomic library screening; PCR (polymerase chain reaction) technology; site-directed mutagenesis; DNAse footprinting procedure; transgenic and knock-out mice; in-vitro and in-vivo expression of specific proteins; cloning hereditary disease-causing genes; recombinant DNA and its commercial applications. PREREQ: CHMI 3217 (lec 3) cr 3. Students may not retain credit for both CHMI 4226 and CHMI 3216. Lecture (3.00). Equivalent to CHMI-3216FL, CHMI-4226FL.
Topics selected from recent literature on cellular and medical biochemistry are studied in depth. PREREQ: CHMI 3226. (lec 3) cr 3.
This course examines the biochemical and genetic adaptations of living organisms to various environmental factors. Stresses mediated by effectors such as temperature, water, salt, hydrogen ions, radiation, chemical pollutants, both metals and non-metals, and nutrients are examined. PREREQ: CHMI 3226. (lec 3) cr 3.
Examines the biochemical principles and cellular and molecular mechanisms that contribute to the manifestation of toxicity caused by drugs and environmental chemicals with emphasis on potential routes of uptake, the enzymes which catalyze biotransformation of xenobiotics, storage and elimination. The chemical reactivity, enzymatic induction and inhibition, the role of the cytochrome P-450-dependent mixed-function oxidase system in the deactivation and bioactivation of xenobiotics and glutathione conjugation are also presented. Topics include: reproductive toxicology and teratology, developmental toxicology, carcinogenesis, genotoxicity and mutagenesis, immunotoxiocology, neurotoxicology, environmental toxicology, clinical and regulatory toxicology, human health and ecotoxicological risk assessments. Selected classes of compounds and their exposure routes, mechanisms of toxicity, fate, toxicologic sequelae and their antidotes are considered in depth. PREREQ: CHMI 3226. (lec 3) cr 3 Lecture (3.00).
An introduction to the molecular aspects of the immune response. Topics include: structure, synthesis and function of antibodies, the nature of the antibody/antigen interaction, structure of the antigen receptors and of the MHC (Major Histocompatibility Complex) molecules, structure of the major cytokines and their receptors, and major molecular events involved in immune response. PREREQ: CHMI 3226 (may be taken concurrently). (lec 3) cr 3 Lecture (3.00). Equivalent to CHMI-4297FL.
This course explores selected topics in inorganic chemistry, such as solid state chemistry and industrial inorganic chemistry. PREREQ: CHMI 3317. (lec 3) cr 3
his course will describe how medicinal compounds are discovered from diverse sources. The use of organic chemistry to modify lead compounds will first be studied, with a particular emphasis on the optimization of the molecular structure to overcome undesired pharmacokinetics and pharmacodynamic properties. The students will then be introduced to modern methods of chiral synthesis for the production of enantiomeric molecules. Finally, a review of the various methods used to resolve racemic mixtures will be provided. PREREQ: CHMI 2427. (lec 3) cr 3. Lecture (3.00).
The kinetic and non-kinetic methods of determining the mechanisms of organic reactions are discussed in detail. Structure reactivity relationships and the effects of solvent and other physical parameters on the rates and mechanisms of reactions are also investigated. PREREQ: CHMI 3416. (lec 3) cr 3.
The biosynthesis and biological activity of the following metabolites, polyketides, terpenes, metabolites from the shikimic acid pathway, and those from amino acids and of mixed biosynthetic origins will be presented. The sensory properties of some of the products will be shown as well as the role of others in chemical ecology during living-organism interactions. PREREQ: CHMI 3416 or permission of the instructor. (lec 3) cr 3
An introduction to statistical ensembles of closed and open systems, and their use to compute thermodynamic properties from microscopic information. Topics include: classical and quantum statistics, partition functions, and their use in the calculation of thermodynamic properties of gases and solids. The course also covers the application of statistical mechanics in reaction-rate theory of chemical reactions. Students may not retain credit for both CHMI 4537 & 4576. PREREQ: CHMI 3536/7 or department?s permission. (lec 3) cr 3
This course presents recent advances in the characterization of molecular structure and dynamics at a very high time- and spatial- resolution. Particular emphasis is made on modern spectroscopic and spectrometric methods for the study of clusters and biomolecules, including light scattering and size analysis, confocal microscopy, photoacoustic and advanced infrared techniques, circular dichroism, coherent anti- Stokes Raman spectroscopy (CARS), as well as extended X-ray absorption fine structure (EXAFS) and other applications of synchrotron radiation. The course will also cover advances in techniques for the study of adsorbed biomolecules, including scanning probe techniques (STM and AFM), electrchemical methods, and differential scanning calorimetry. PREREQ: CHMI 2517 and CHMI 3536. (lec 3, tut 1.5) cr 3.
This course examines, in detail, theoretical approaches to chemical reactivity, computer-aided molecular modelling and drug design, and molecular dynamics simulations. Special emphasis is placed on computer simulations of liquids, solid-gas adsorption, drug-receptor interaction, protein folding, and the computation of thermodynamic properties by using statistical mechanics and molecular dynamics. Computer experiments form an essential part of the course. PREREQ: CHMI 3537. (lec 3) cr 3.
The 4th-year student is required to carry out a research project under the supervision of a staff member chosen by the student. The research project is written as a B.Sc. thesis according to the format available from the Department of Chemistry and Biochemistry. The student must give a seminar on the topic of her/his choice in the 2nd term. PREREQ: successful completion of 3rd year or instructor?s permission. (lab 9 min., sem 1) Lecture (3.00).
Faculty Members
Sessional Faculty:
- Christopher McTiernan
- Roger Pitre
- Christine Robson
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