Chemistry

Chemistry Programs | Chemistry Courses

Faculty and Staff List

Professors Emeriti
U.J. Krull, B.Sc., M.Sc., Ph.D., FCIC
J.C. Poë, A.R.C.S., M.Sc., D.I.C., FCIC

Professors
D. Armstrong, Ph.D.
A. Beharry, B.Sc., Ph.D.
U.W. Fekl, M.Sc., Ph.D.
P.T. Gunning, B.Sc., Ph.D.
V. Kanelis, B.Sc., Ph.D.
M.D. Korzyński, B.Sc.Eng., M.Sc.Eng., Ph.D
D.R. McMillen, B.Sc., M.Sc., Ph.D.
A. Ogata, Ph.D.
P.A.E Piunno, B.Sc., M.Sc., Ph.D.
R.S. Prosser, B.Sc., M.Sc., Ph.D.
L. Revers, Ph.D.
J.A. Shin, A.B., Ph.D.
J. Strautmanis, B.Sc., M.Sc., Ph.D

Chair
Lindsay Schoenbohm
Room 4037, William G. Davis Bldg
905-569-4400
cpschair.utm@utoronto.ca

Faculty Program Advisor
David McMillen
DV4056, William G. Davis Bldg
905-828-5353
david.mcmillen@utoronto.ca

Academic Counsellor/Undergrad Program Administrator
Christina Fortes
Room 4061, William G. Davis Bldg.
905-828-5351
christina.fortes@utoronto.ca

 

Chemistry has a vital role in modern science-based industry and in the improved material well-being and health of our society. It is being applied increasingly to the growth of our understanding of medicine, biology, materials science, geology, and many other branches of science. Chemistry also has a major role to play in solving our world-wide problems of energy conservation, environmental pollution, nuclear waste disposal and, through its important contributions to agriculture, even famine. Many of our future advances will originate from the kind of interdisciplinary research in which chemists trained to solve problems from the molecular to the bulk level must be involved.

As an academic university-based discipline, Chemistry stands in the centre of the sciences and is recognized as a sound basis for the kind of imaginative and disciplined thinking that has application beyond science to many other occupations and endeavours. At U of T Mississauga, we offer a Chemistry Program that enables a student to complete a Specialist Degree in Chemistry over a four-year period on the campus. A Major Program is also available for students who want a significant background in Chemistry. The Chemistry faculty are moving strongly towards a distinctive teaching and research specialization in the border regions between Chemistry and Biology and also offers a Specialist Program in Biological Chemistry. Our analytical chemistry has a strong focus in this direction as well and the Department supports Specialist and Major Programs in Environmental Analysis and a Specialist Program in Forensic Science-Chemistry.

The programs in Chemistry offered at U of T Mississauga provide a very suitable preparation for those who intend to prepare for professional programs such as medicine, enter the work force in industry, teach chemistry in high school, or continue into a graduate program. Students are urged to consult the faculty advisor for help in choosing the appropriate courses and programs.

It is very important to plan one's program in advance and to consult regularly (at least once a year) with a faculty advisor. It is particularly desirable to take specific courses in the year of study for which they are designed (e.g., CHM200 level courses in Year 2); serious timetable clashes are likely to arise if this advice is not followed. While some deviations from the Specialist/Major/Minor programs listed are possible, students should consult the program advisor before departing from the recommended programs.

Students should also review the Degree Requirements section prior to selecting courses

 

UTM Co-op Internship Program

The UTM Co-op Internship Program (UTMCIP) stream is available to eligible students enrolled in the Biological Chemistry Specialist and Chemistry Specialist programs. Enrolment is limited and requires a supplemental application. Students enrolled in the UTMCIP stream will be required to complete mandatory Work-Readiness programming plus a 12- or 16-month term of paid, full-time work experience. The time to degree completion for students enrolled in UTMCIP will normally be 5 years. There is an additional cost to participate in the UTMCIP stream.

Enrolment in the UTMCIP stream of the CPS Specialist programs is limited. Students will be eligible to apply to UTMCIP streams after their first year of study and/or completion of at least 4.0 credits, in alignment with the program’s requirements, and no more than 6.0 credits in total. Successful applicants will be enrolled into the UTMCIP stream of their academic program in Year of Study 2.

Enrolment is open to domestic and international students. All international students must possess a valid work permit and Social Insurance Number (SIN) to participate in a work term.

Please be advised that UTMCIP eligibility requirements, including CGPA and pre-requisite courses, may differ from the regular program requirements. Students are encouraged to carefully review the academic program descriptions below to identify whether the UTMCIP stream has any additional eligibility requirements. Students may also consult the UTMCIP website for further details on program eligibility requirements.

Chemistry Programs

Biological Chemistry - Specialist (Science)

Biological Chemistry - Specialist (Science)

This program is accredited by the Canadian Society for Chemistry.

Enrolment Requirements:

Limited Enrolment — Enrolment in this program is limited.

4.0 credits are required, including the following:

  1. CHM110H5 and CHM120H5 (minimum grade of 65% in CHM120H5)
  2. ( MAT132H5 and MAT134H5, minimum grade of 65% in MAT134H5) or ( MAT135H5 and MAT136H5, minimum grade of 65% in MAT136H5) or ( MAT137H5 and MAT139H5) or ( MAT157H5 and MAT159H5) or MAT137Y5 (minimum grade of 65%) or MAT157Y5 (minimum grade of 65%)
  3. ISP100H5
  4. A minimum CGPA of 2.5

NOTE: Completion of BIO152H5 prior to enrolment is recommended.

Enrolment in the UTMCIP stream of this program is limited to students who have completed 4.0 credits, including:

  1. CHM110H5 and CHM120H5 (minimum grade of 65% in CHM120H5)
  2. ( MAT132H5 and MAT134H5, minimum grade of 65% in MAT134H5) or ( MAT135H5 and MAT136H5, minimum grade of 65% in MAT136H5) or ( MAT137H5 and MAT139H5) or ( MAT157H5 and MAT159H5) or MAT134Y5 (minimum grade of 65%) or MAT135Y5 (minimum grade of 65%) or MAT137Y5 (minimum grade of 65%) or MAT157Y5 (minimum grade of 65%)
  3. ISP100H5

Students who have achieved a cumulative GPA of at least 3.0 are encouraged to apply. Students must be in good standing with no outstanding academic integrity cases.

Completion Requirements:

14.5 credits are required.

First Year:

  1. BIO152H5
  2. CHM110H5 and CHM120H5
  3. ( MAT132H5 and MAT134H5) or ( MAT135H5 and MAT136H5) or ( MAT137H5 and MAT139H5) or ( MAT157H5 and MAT159H5) or MAT137Y5 or MAT157Y5
  4. ( PHY136H5 and PHY137H5) or ( PHY146H5 and PHY147H5)
  5. ISP100H5

Second Year:

  1. CHM211H5 and CHM231H5 and CHM242H5 and CHM243H5
  2. JCP221H5
  3. BIO206H5 and BIO207H5
  4. 0.5 credit of MAT or CSC or STA (at any level)

Third Year:

  1. CHM333H5 and ( CHM341H5 or CHM345H5) and CHM347H5 and CHM361H5 and CHM362H5 and CHM372H5 and CHM373H5
  2. BIO372H5

Fourth Year:

  1. CHM399Y5 or CHM489Y5 or CPS489Y5 or CPS400Y5 or JCB487Y5 or ( BCH472Y1 or BCH473Y1, with permission of the CHM Program Advisor)
  2. 1.5 credits from the following courses: BIO324H5 or CHM412H5 or CHM444H5 or CHM462H5 or CHM485H5 or JCP410H5 or JCP422H5 or JCP463H5 or JBC472H5 or CHM447H1 or CHM479H1 or any 400 level BCH lecture course.

Note:
  1. Enrolment in certain BCH courses at the St. George campus is limited.
  2. ( MAT132H5 and MAT134H5) or ( MAT135H5 and MAT136H5) or ( MAT137H5 and MAT139H5) or ( MAT157H5 and MAT159H5) or MAT137Y5 or MAT157Y5 is required for all 200-level CHM courses. For MAT157Y5, permission is required from the CHM Program Advisor.
  3. Students cannot count more than 1.0 credits total in ROP, Internship or Research Project/ Thesis courses at the 300/400 level for credit toward their Chemistry program.
  4. BIO206H5 has a prerequisite of BIO152H5
  5. BIO207H5 has a prerequisite of BIO152H5 and BIO153H5.
  6. PHY146H5 and PHY147H5 are recommended preparation for all Joint Chemistry-Physics (JCP) courses.

ERSPE1995

Chemistry - Specialist (Science)

Chemistry - Specialist (Science)

This program is accredited by the Canadian Society for Chemistry.

Enrolment Requirements:

Limited Enrolment — Enrolment in this program is limited.

4.0 credits are required, including the following:

  1. CHM110H5 and CHM120H5 (minimum grade of 65% in CHM120H5)
  2. ( MAT132H5 and MAT134H5, with a minimum grade of 65% in MAT134H5) or ( MAT135H5 and MAT136H5, with a minimum grade of 65% in MAT136H5) or (MAT137 and MAT139) or (MAT157 and MAT159) or MAT137Y5 (minimum grade of 65%) or MAT157Y5 (minimum grade of 65%)
  3. ISP100H5
  4. A minimum CGPA of 2.5

Enrolment in the UTMCIP stream of this program is limited to students who have completed 4.0 credits, including:

  1. CHM110H5 and CHM120H5 (minimum grade of 65% in CHM120H5)
  2. ( MAT132H5 and MAT134H5, with a minimum grade of 65% in MAT134H5) or ( MAT135H5 and MAT136H5, with a minimum grade of 65% in MAT136H5) or (MAT137 and MAT139) or (MAT157 and MAT159) or MAT134Y5 (minimum grade of 65%) or MAT135Y5 (minimum grade of 65%) or MAT137Y5 (minimum grade of 65%) or MAT157Y5 (minimum grade of 65%)
  3. ISP100H5

Students who have achieved a cumulative GPA of at least 3.0 are encouraged to apply. Students must be in good standing with no outstanding academic integrity cases.

Completion Requirements:

13.5 credits are required.

First Year:

  1. CHM110H5 and CHM120H5
  2. ( MAT132H5 and MAT134H5) or ( MAT135H5 and MAT136H5) or ( MAT137H5 and MAT139H5) or ( MAT157H5 and MAT159H5) or MAT137Y5 or MAT157Y5
  3. ( PHY136H5 and PHY137H5) or ( PHY146H5 and PHY147H5)
  4. ISP100H5

Second Year:

  1. CHM211H5 and CHM231H5 and CHM242H5 and CHM243H5
  2. JCP221H5
  3. MAT232H5

Third Year:

  1. CHM311H5 and CHM331H5 and CHM361H5 and CHM394H5 and CHM396H5
  2. CHM341H5 or CHM345H5
  3. JCP321H5

Fourth Year:

  1. ( CHM395H5 and CHM397H5) or CHM399Y5 or CHM489Y5 or CPS489Y5 or CPS400Y5 or CPS401Y5 or JCB487Y5
  2. 1.5 credits lecture courses from: CHM412H5 or CHM414H5 or CHM416H5 or CHM436H5 or CHM442H5 or CHM444H5 or CHM462H5 or JCP421H5 or JCP422H5 or JCP410H5 or JCP463H5
  3. 1.0 credit from: CHM323H5 or CHM333H5 or CHM341H5 or CHM345H5 or CHM347H5 or CHM362H5 or CHM372H or CHM373H5 or CHM395H or CHM397H5 or CHM412H5 or CHM414H5 or CHM416H5 or CHM436H5 or CHM442H5 or CHM444H5 or CHM462H5 or CHM485H5 or CPS398H5 or FSC311H5 or JCP321H5 or JCP322H5 or JCP410H5 or JCP421H5 or JCP422H5 or JCP463H5

Note:
  1. For MAT157H5, permission is required from the CHM Program Advisor
  2. MAT212H5 has the following requirements: Prerequisite - MAT233H5 or ( MAT232H5 or MAT257Y5 as a corequisite); and Corequisite - MAT223H5 or MAT240H5
  3. ( MAT132H5 and MAT134H5) or ( MAT135H5 and MAT136H5) or ( MAT137H5 and MAT139H5) or ( MAT157H5 and MAT159H5) or MAT137Y5 is required for all 200-level CHM courses.
  4. Students cannot take more than 2.0 credits total in ROP, Internship or Research Project/ Thesis courses at the 300/ 400 level for credit toward this Chemistry program.
  5. PHY146H5 and PHY147H5 are recommended preparation for all Joint Chemistry-Physics (JCP) courses

ERSPE1376

Chemistry - Major (Science)

Chemistry - Major (Science)

Enrolment Requirements:

Limited Enrolment — Enrolment in this program is limited.

4.0 credits are required, including the following:

  1. CHM110H5 and CHM120H5 (minimum grade of 60% in CHM120H5)
  2. ( MAT132H5 and MAT134H5) or ( MAT135H5 and MAT136H5) or ( MAT137H5 and MAT139H5) or ( MAT157H5 and MAT159H5) or MAT137Y5 or MAT157Y5
  3. ISP100H5

Completion Requirements:

8.5 credits are required.

First Year:

  1. CHM110H5 and CHM120H5
  2. ( MAT132H5 and MAT134H5) or ( MAT135H5 and MAT136H5) or ( MAT137H5 and MAT139H5) or ( MAT157H5 and MAT159H5) or MAT137Y5 or MAT157Y5
  3. ISP100H5

Second Year:

  1. CHM211H5 and CHM231H5 and CHM242H5 and CHM243H5
  2. JCP221H5

Higher Years:

  1. ( CHM372H5 and CHM373H5) or ( CHM394H5 and CHM395H5) or ( CHM396H5 and CHM397H5)
  2. 1.5 credits from lecture courses: CHM311H5 or CHM331H5 or CHM333H5 or CHM341H5 or CHM345H5 or CHM347H5 or CHM361H5 or CHM362H5 or CHM436H5 or CHM412H5 or CHM414H5 or CHM416H5 or CHM442H5 or CHM444H5 or CHM462H5 or JCP321H5 or JCP322H5 or JCP410H5 or JCP421H5 or JCP422H5 or JCP463H5
  3. 1.0 credit from: CHM311H5 or CHM323H5 or CHM331H5 or CHM333H5 or CHM341H5 or CHM345H5 or CHM347H5 or CHM361H5 or CHM362H5 or CHM372H5 or CHM373H5 or CHM394H5 or CHM395H5 or CHM396H5 or CHM397H5 or CHM399Y5 or CHM412H5 or CHM414H5 or CHM416H5 or CHM436H5 or CHM442H5 or CHM444H5 or CHM462H5 or CHM485H5 or CHM489Y5 or CPS489Y5 or CPS398H5 or CPS400Y5 or FSC311H5 or JCP321H5 or JCP322H5 or JCP410H5 or JCP421H5 or JCP422H5 or JCP463H5 or JBC472H5 or JCB487Y5

Note:
  1. ( MAT132H5 and MAT134H5) or ( MAT135H5 and MAT136H5) or ( MAT137H5 and MAT139H5) or ( MAT157H5 and MAT159H5) or MAT137Y5 or MAT157Y5 is required for all 200-level CHM/ JCP courses.
  2. For a balanced training in Chemistry, students should take CHM311H5 and ( CHM331H5 or CHM333H5) and ( CHM341H5 or CHM345H5) and JCP321H5.

ERMAJ1376

Chemistry - Minor (Science)

Chemistry - Minor (Science)

Enrolment Requirements:

Limited Enrolment — Enrolment in the Chemistry Minor Program is based on completion of 4.0 credits including

  1. CHM110H5 and CHM120H5 (minimum grade of 60% in CHM120H5)
  2. ( MAT132H5 and MAT134H5) or ( MAT135H5 and MAT136H5) or ( MAT137H5 and MAT139H5) or ( MAT157H5 and MAT159H5) or MAT137Y5 or MAT157Y5

Completion Requirements:

4.0 credits in CHM/ JCP are required.

First Year:

1. CHM110H5 and CHM120H5

Higher Years:

1. 2.0 credits from: CHM211H5 or CHM231H5 or CHM242H5 or CHM243H5 or CHM311H5 or CHM331H5 or CHM333H5 or CHM341H5 or CHM345H5 or CHM347H5 or CHM361H5 or CHM362H5 or CHM372H5 or CHM373H5 or CHM394H5 or CHM395H5 or CHM396H5 or CHM397H5 or CHM412H5 or CHM414H5 or CHM416H5 or CHM436H5 or CHM442H5 or CHM444H5 or CHM462H5 or JCP221H5 or JCP321H5 or JCP322H5 or JCP410H5 or JCP421H5 or JCP422H5 or JCP463H5 or FSC311H5

2. 1.0 credits at 300/400 level from: CHM311H5 or CHM323H5 or CHM331H5 or CHM333H5 or CHM341H5 or CHM345H5 or CHM347H5 or CHM361H5 or CHM362H5 or CHM372H5 or CHM373H5 or CHM394H5 or CHM395H5 or CHM396H5 or CHM397H5 or CHM412H5 or CHM414H5 or CHM416H5 or CHM436H5 or CHM442H5 or CHM444H5 or CHM462H5 or JCP321H5 or FSC311H5 or JCP322H5 or JCP410H5 or JCP421H5 or JCP422H5 or JCP463H5

Notes:


ERMIN1376

Chemistry Courses

CHM101H5 • The Science of Human Health

This course is intended for humanities and social science students who wish to gain knowledge of the science behind our well-being that may help them to make personal, social and political decisions in their future. Chemistry will be taught on a need-to-know basis in order to consider some contemporary applications. The course will focus on three themes in the realm of human health: nutrition for the prevention of disease, diagnostic tests for the detection of disease and drug discovery for the treatment of disease. Among the questions that may be addressed are "What is the nutritional difference between vitamins from foods and those from supplements?", "Should ketchup be considered a vegetable?", "How do diagnostic strips work?", "What advances in microfluidics have provided inexpensive diagnostics for use in remote areas?", "How are drug targets identified?", and "What is the path from drug discovery to bringing a drug to market?". The roles of nutritional, analytical and medicinal chemistry in these processes will be studied. (Please note the course exclusion: Students are ineligible to register for this course if they have taken any previous or current CHM/JCP course).

Exclusions: CHM201H5 and any CHM/JCP course taken previously or concurrently

Distribution Requirement: Science
Total Instructional Hours: 24L/12T
Mode of Delivery: Online, In Class, Hybrid

CHM110H5 • Chemical Principles 1

Matter and its transformations are studied at the macroscopic level. Topics include stoichiometry, phases of matter, equilibria, thermodynamics and electrochemistry.

Prerequisites: Grade 12 Chemistry (SCH4U) (minimum grade of 70) and Grade 12 Advanced Functions (MHF4U0) (minimum grade of 70) and Grade 12 Calculus and Vectors (MCV4U) highly recommended
Corequisites: Recommended Corequisite: (MAT132H5 and MAT134H5) or (MAT135H5 and MAT136H5) or (MAT137H5 and MAT139H5) or (MAT157H5 and MAT159H5) or (MAT134Y5 or MAT135Y5 or MAT137Y5 or MAT157Y5); this recommended corequisite is a prerequisite for all 200 level CHM courses.
Exclusions: CHM135H1 or CHM151Y1 or CHM140Y5 or CHMA11H3

Distribution Requirement: Science
Total Instructional Hours: 36L/12T/18P
Mode of Delivery: In Class

CHM120H5 • Chemical Principles 2

Building on the subject matter of CHM110H5, molecular events are studied at the microscopic level. Topics include atomic and molecular structure, intermolecular forces of attraction, reaction kinetics, and organic chemical reactions and mechanisms.

Prerequisites: CHM110H5
Corequisites: Recommended Corequisite: (MAT132H5 and MAT134H5) or (MAT135H5 and MAT136H5) or (MAT137H5 and MAT139H5) or (MAT157H5 and MAT159H5) or (MAT134Y5 or MAT135Y5 or MAT137Y5 or MAT157Y5); this recommended corequisite is a prerequisite for all 200 level CHM courses.
Exclusions: CHM136H1 or CHM151Y1 or CHM140Y5 or CHMA10H3

Distribution Requirement: Science
Total Instructional Hours: 36L/12T/18P
Mode of Delivery: In Class

CHM211H5 • Fundamentals of Analytical Chemistry

A rigorous introduction to the theory and practice of analytical chemistry. Development and applications of basic statistical concepts in treatment and interpretation of analytical data; direct and indirect precipitations; volumetric methods; acid-base, complexometric, redox and precipitation titrations; introduction to instrumental methods; potentiometry and absorption spectroscopy. Applications in biomedical, forensic and environmental areas will be considered.

Prerequisites: CHM110H5 and a minimum grade of 60% in CHM120H5 and [(MAT132H5 and MAT134H5) or (MAT135H5 and MAT136H5) or (MAT137H5 and MAT139H5) or (MAT157H5 and MAT159H5) or (MAT134Y5 or MAT135Y5 or MAT137Y5 or MAT157Y5)]
Exclusions: CHM217H1 or CHMB16H3

Distribution Requirement: Science
Total Instructional Hours: 24L/12T/48P
Mode of Delivery: In Class

CHM231H5 • Inorganic Chemistry I

Atomic structure; periodic properties of the elements; bonding theories-ionic, covalent (valence bond and molecular orbital) and metallic; structure and bonding in coordination compounds of main group elements and transition metals; descriptive chemistry of the metals. Reaction mechanisms.

Prerequisites: CHM110H5 and a minimum grade of 60% in CHM120H5 and [(MAT132H5 and MAT134H5) or (MAT137H5 and MAT139H5) or (MAT157H5 and MAT159H5) or (MAT135H5 and MAT136H5) or (MAT134Y5 or MAT135Y5 or MAT137Y5 or MAT157Y5)].
Exclusions: CHM238Y1 or CHMB31H3

Distribution Requirement: Science
Total Instructional Hours: 36L/10T/28P
Mode of Delivery: In Class

CHM242H5 • Introductory Organic Chemistry I

Fundamentals of organic chemistry emphasizing reactions of alkanes and alkenes. The first half of a two-course sequence (with CHM243H5) required in the Chemistry major and specialist programs.

Prerequisites: CHM110H5 and a minimum grade of 60% in CHM120H5 and [(MAT132H5 and MAT134H5) or (MAT135H5 and MAT136H5) or (MAT137H5 and MAT139H5) or (MAT157H5 and MAT159H5) or (MAT134Y5 or MAT135Y5 or MAT137Y5 or MAT157Y5)].
Exclusions: CHM136H1 or CHMB41H3 or CHMB43Y3

Distribution Requirement: Science
Total Instructional Hours: 36L/12T
Mode of Delivery: In Class

CHM243H5 • Introductory Organic Chemistry II

The chemistry of benzene, alcohols, aldehydes, ketones, carboxylic acid, esters, acid chlorides, amides and amines will be covered. As well, electrophilic aromatic substitution, protection and deprotection of alcohols, nucleophilic acyl substitution, nucleophilic addition, carbonyl alpha-substitution reaction, keto-enol tautomerism, carbonyl condensation and amines will be introduced. The emphasis will be on organic mechanisms and application of organic reactions to multistep synthesis. Continues from CHM242H5.

Prerequisites: CHM242H5
Exclusions: CHM247H1 or CHM249H1 or CHMB42H3

Distribution Requirement: Science
Total Instructional Hours: 36L/48P
Mode of Delivery: In Class

CHM299Y5 • Research Opportunity Program

This courses provides a richly rewarding opportunity for students in their second year to work in the research project of a professor in return for 299Y course credit. Students enrolled have an opportunity to become involved in original research, learn research methods and share in the excitement and discovery of acquiring new knowledge. This course does not count as one of the requirements in the Chemistry Minor, Chemistry Major, Chemistry Specialist or Biological Chemistry Specialist programs. Participating faculty members post their project descriptions for the following summer and fall/winter sessions in early February and students are invited to apply in early March. See Experiential and International Opportunities for more details.

Prerequisites: Completion of at least 4.0 credits and no more than 10.0 credits, which must include CHM110H5 and CHM120H5 with a minimum grade of 60% and [(MAT132H5 and MAT134H5) or (MAT135H5 and MAT136H5) or (MAT137H5 and MAT139H5) or (MAT157H5 and MAT159H5) or (MAT134Y5 or MAT135Y5 or MAT137Y5 or MAT157Y5)].

Distribution Requirement: Science
Mode of Delivery: In Class

CHM311H5 • Instrumental Analytical Chemistry

Introduction to the basic theory and practice underlying important techniques in analytical chemistry, chosen from three major areas of instrumental analysis: spectroscopy, electrochemistry and separation science. Specific topics will include fluorescence spectroscopy, atomic spectroscopy, x-ray fluorescence, voltammetry, high resolution gas and liquid chromatography, mass spectrometry, and a brief introduction to computer applications, including Fourier transform methods. A problem-based approach will be used to explore these methods in a wide variety of practical applications, which will include individualized student assignments.

Prerequisites: CHM211H5
Exclusions: CHM317Y1 or (CHMC16H3 and CHMC11H3)
Recommended Preparation: JCP221H5

Distribution Requirement: Science
Total Instructional Hours: 36L
Mode of Delivery: In Class

CHM323H5 • Introduction to Computational Chemistry

This course covers the foundations of computational chemistry with a focus on practical applications and does not require a background in programming or quantum mechanics. An array of methods for predicting the structural, electronic, thermodynamic, and spectroscopic properties of chemical species will be addressed, as well as how the calculated results can complement experimental observations. Relevant fundamental theories to computational chemistry will be covered on a need-to-know basis. Students will follow an individualized study path and select the chemical systems to which each method will be applied.

Prerequisites: CHM243H5
Recommended Preparation: CHM231H5 and JCP221H5

Distribution Requirement: Science
Total Instructional Hours: 12L/36T
Mode of Delivery: In Class

CHM331H5 • Inorganic Chemistry II: Advanced Inorganic Chemistry

Chemistry of metallic elements. Organometallics. Main group and transition elements. Rings, cages and clusters. Lanthanides and Actinides. Applications of IR, UV-VIS and multinuclear NMR spectroscopy. Symmetry. Inorganic synthesis. Non-aqueous solvents. Structure and bonding. Catalysis and industrial processes.

Prerequisites: CHM231H5 and CHM242H5
Corequisites: CHM243H5
Exclusions: CHM338H1 or CHMC31Y3

Distribution Requirement: Science
Total Instructional Hours: 36L
Mode of Delivery: In Class

CHM333H5 • Bioinorganic Chemistry

Principles of inorganic chemical reactions and their application to biochemical systems: kinetics, mechanisms and thermodynamics of ligand exchange, acid-base and redox reactions involving metalloproteins and their model compounds; mechanisms of catalysis by metalloenzymes and their model compounds; metal ion related diseases; metals in chemotherapy.

Prerequisites: CHM231H5 and CHM242H5
Corequisites: CHM243H5
Exclusions: CHM437H1 or CHMD69H3

Distribution Requirement: Science
Total Instructional Hours: 36L
Mode of Delivery: In Class

CHM341H5 • Organic Chemistry: Mechanism and Structure

Stereochemistry and conformational analysis; mechanisms of important types of organic reaction; pericyclic reactions; reactive intermediates.

Prerequisites: CHM243H5
Exclusions: CHM348H1 or CHMC41H3

Distribution Requirement: Science
Total Instructional Hours: 36L
Mode of Delivery: In Class

CHM345H5 • Organic Synthesis

Methods used for forming carbon-carbon bonds will be reviewed, including reactions of the various types of nucleophilic carbon and the use of organometallic reagents. Other topics include functional group interconversions, oxidation and reduction and the role of elements such as boron, silicon and tin in organic synthesis.

Prerequisites: CHM243H5
Exclusions: CHM342H1 or CHMC42H3

Distribution Requirement: Science
Total Instructional Hours: 36L
Mode of Delivery: In Class

CHM347H5 • Organic Chemistry of Biological Compounds

The chemistry of selected classes of naturally occurring molecules such as those below, with emphasis on structure, stereochemistry, properties and synthesis. Amino acids, peptides, proteins, carbohydrates, lipids, nucleosides, nucleotides, and nucleic acids.

Prerequisites: CHM243H5
Exclusions: CHM347H1 or CHMC47H3

Distribution Requirement: Science
Total Instructional Hours: 36L
Mode of Delivery: In Class

CHM361H5 • Structural Biochemistry

An introduction to the molecular anatomy and properties of the major cellular biomolecules: proteins, nucleic acids, carbohydrates and lipids. The course also covers the structural organization of membranes and other macromolecular complexes. Enzyme mechanisms and membrane transport phenomena will be examined in the context of quantitative analyses these processes and of structure/function relationships.

Prerequisites: CHM243H5
Exclusions: BCH210H1 or BCH242Y1 or BCH311H1 or BIOC12H3 or CHMB62H3
Recommended Preparation: BIO206H5 and JCP221H5

Distribution Requirement: Science
Total Instructional Hours: 24L/12T
Mode of Delivery: In Class

CHM362H5 • Metabolism and Bioenergetics

Basic principles of biological energetics. Metabolic pathways for carbohydrate and lipid synthesis and degradation. Survey of amino acid and nucleotide metabolism. Integration and cellular regulation of metabolism. Intracellular signal transduction mechanisms.

Prerequisites: CHM361H5
Exclusions: BCH210H1 or BCH242Y1 or BIOC13H3 or CHMB62H3
Recommended Preparation: BIO206H5 and JCP221H5

Distribution Requirement: Science
Total Instructional Hours: 24L/12T
Mode of Delivery: In Class

CHM372H5 • Techniques in Biological Chemistry I

The first in a sequence of two laboratory courses intended to complement CHM361H5 and CHM362H5. Experiments are designed to familiarize students with techniques commonly used to study the chemical and physical properties of biological molecules. Topics covered in the first half also include a wide range of chromatographic and/or fractionation methods to separate proteins and/or subcellular organelles, enzyme kinetics, electrophoresis to study proteins and their complexes. The theoretical basis for each experiment will be covered in a 1-hour lecture each week.

Prerequisites: CHM243H5
Corequisites: CHM361H5
Exclusions: CHM371H5 or BCH370H1 or BCH371H1

Distribution Requirement: Science
Total Instructional Hours: 12L/48P
Mode of Delivery: In Class

CHM373H5 • Techniques in Biological Chemistry II

The second in a sequence of two laboratory courses intended to complement CHM361H5 and CHM362H5. CHM373H5 carries on from CHM372H5 with a particular emphasis on protein purification, enzyme kinetics and protein characterization (e.g., kinetics, reactions, binding, depending on the protein studied). Techniques covered include classic biochemical techniques used in studying proteins and protein complexes, such as chromatography and fluorescence methods. The theoretical basis for each experiment will be covered in a 1-hour lecture each week.


Prerequisites: CHM372H5
Corequisites: CHM361H5
Exclusions: CHM371H5 or BCH370H1 or BCH371H1

Distribution Requirement: Science
Total Instructional Hours: 12L/48P
Mode of Delivery: In Class

CHM394H5 • Chemical Synthesis Laboratory I

The first in a sequence of two laboratory courses in synthetic chemistry. This laboratory course comprises the synthesis of inorganic and organic compounds supplemented by physical measurements (e.g., ir, uv, 1H NMR spectra, magnetic susceptibility, etc.) of the products where appropriate. Approximately six weeks each will be spent on two groups of foundational experiments, one in organic and one in inorganic synthesis to illustrate techniques of chemical synthesis. The central role of the carbonyl group in organic synthesis is elaborated, an organic unknown is identified both chemically and spectroscopically and the synthetic chemistry of the first row transition elements is explored.

Prerequisites: CHM231H5 and CHM243H5
Exclusions: CHM393H5Y

Distribution Requirement: Science
Total Instructional Hours: 48P
Mode of Delivery: In Class

CHM395H5 • Chemical Synthesis Laboratory II

The second in a sequence of two laboratory courses in synthetic chemistry that builds on the foundations established in CHM394H5. Students choose their own experiments in this course from offerings comprising the synthesis of organic, organometallic and inorganic compounds and in computational chemistry. Techniques such as working at low temperatures and in inert atmospheres (e.g., glove box) are introduced. Depending on the experiments actually chosen, a mixed organic unknown is separated and identified, organic rearrangements and the synthetic chemistry of elements from across the Periodic Table including main group, transition elements and lanthanides are explored. A highlight is an optional four week independent synthesis project in any area of synthetic chemistry adapting procedures from the published, including recent, research literature.

Prerequisites: CHM394H5
Corequisites: (CHM331H5 or CHM333H5) and (CHM341H5 or CHM345H5)

Distribution Requirement: Science
Total Instructional Hours: 48P
Mode of Delivery: In Class

CHM396H5 • Analytical and Physical Chemistry Instrumentation Laboratory I

This analytical and physical chemistry laboratory course represents an integration of the study of fundamental physical chemistry with wide-ranging applications to instrumental methods of analysis, such as separation science, electrochemistry and spectroscopy. The course will provide a solid hands-on grounding in many of the major topics covered in analytical and physical chemistry, and the optimization of instrumental analytical measurements by the application of physical principles. Students select from a variety of instruments to customize their program, and develop their own analytical methods to address analytical problems of interest to the student.

Prerequisites: CHM211H5 and JCP221H5
Exclusions: CHM391H5 or CHM317H1 or CHM410Y1 or CHMC16H3
Recommended Preparation: CHM311H5

Course Experience: University-Based Experience
Distribution Requirement: Science
Total Instructional Hours: 48P
Mode of Delivery: In Class

CHM397H5 • Analytical and Physical Chemistry Instrumentation Laboratory II

This analytical and physical chemistry laboratory course carries on from CHM396 to introduce more advanced topics in instrumental methods of analysis and physical chemistry concepts. The course will include experimental modules focused on instrument design and computer interfacing, molecular spectroscopy (e.g. fluorescence, infrared and Raman, and NMR), plasmon resonance methods for biomolecule determinations and kinetic analysis, microfluidics and lab-on-a-chip technologies. The course will provide practical experience in the optimization of instrumental analytical measurements, experiment design, and topics of relevance to research in analytical and physical chemistry.

Prerequisites: CHM396H5
Corequisites: CHM311H5

Course Experience: University-Based Experience
Distribution Requirement: Science
Total Instructional Hours: 48P
Mode of Delivery: In Class

CHM399Y5 • Research Opportunity Program

This course provides third-year undergraduate students (after completion of 8.0 credits) who have developed some knowledge of Chemistry and its research methods, an opportunity to work in the research project of a professor in return for course credit. Students enrolled have the opportunity to become involved in original research, enhance their research skills and share in the excitement of acquiring new knowledge and in the discovery process of science. This course does not count as one of the requirements in the Chemistry Minor program. Participating faculty members post their project descriptions for the following summer and fall/winter sessions in early February and students are invited to apply in early March. See Experiential and International Opportunities for more details.

Prerequisites: 8.0 credits, including CHM110H5 and CHM120H5 with a minimum grade of 60% and [(MAT132H5 and MAT134H5) or (MAT135H5 and MAT136H5) or (MAT137H5 and MAT139H5) or (MAT157H5 and MAT159H5) or (MAT134Y5 or MAT135Y5 or MAT137Y5 or MAT157Y5)] and 2.0 credit of CHM/ JCP at the 200-level.

Course Experience: University-Based Experience
Distribution Requirement: Science
Mode of Delivery: In Class

CHM412H5 • Sensors, Sequencers, and Diagnostic Technologies

An exploration of biomolecule analysis methodologies, with an emphasis on nucleic acid analysis, will be done from the perspective of the Analytical Biochemist. The course will begin with brief reviews of the structure and function of biomolecules, solid-phase synthesis, extraction, pre-concentration and amplification methods. This will be followed by an exploration of established and emerging techniques for target biomolecule determinations, including: bioprobes, microarrays, biosensors and DNA sequencing technologies (including single molecule approaches). Current examples of implementation in the fields of proteomics and genomics will be discussed throughout the course, with an emphasis on life sciences and diagnostic testing applications. Course work will include independent literature reviews and student presentations.

Prerequisites: CHM311H5
Recommended Preparation: CHM243H5

Distribution Requirement: Science
Total Instructional Hours: 24L/12S
Mode of Delivery: In Class

CHM414H5 • Advanced Topics in Analytical Chemistry

An overview of both recent and fundamental developments of instrumentation that are revolutionizing the field of analytical chemistry, with an emphasis on applications in biological chemistry and biotechnology. Topics will include a survey of advanced analytical techniques, including specialized mass spectrometry techniques, x-ray photoelectron spectroscopy, Auger electron spectroscopy, Electron Microscopy, Surface Enhanced Raman spectroscopy, Localized surface plasmon resonance, total internal reflection fluorescence methods; chemometrics, and other state-of-the-art analytical methods. Course work will include independent review of peer-reviewed literature, scientific writing, and student oral presentations

Prerequisites: CHM311H5
Recommended Preparation: JCP321H5

Distribution Requirement: Science
Total Instructional Hours: 24L/12S
Mode of Delivery: In Class

CHM416H5 • Separations, Chromatography and Microfluidics

Separation science will be explored by building on a survey of fundamental physical principles to understand processes of extraction, and technologies such as solid phase microextraction, supercritical fluid extraction, immunoaffinity extraction and molecularly imprinted polymers. Plate and rate theory will be developed to consider various forms of gas and liquid chromatographic methods, including hyphenated techniques that bridge to information detectors such as mass spectrometers. New opportunities for chromatography and separations by movement to small scale size will be considered by focusing on microfluidics, electro-osmotic flow and chip based microdevice applications. Applications examples will focus on problems in life sciences, forensics and environmental chemistry. Course work will include independent literature reviews and student presentations.

Prerequisites: CHM311H5
Exclusions: CHM416H1

Distribution Requirement: Science
Total Instructional Hours: 24L/12S
Mode of Delivery: In Class

CHM436H5 • Metal-based Chemistry for Synthesis of Small Molecules and Functional Materials

Modern metal-mediated (inorganic) reactions useful in organic synthesis. Applications of advanced organometallic chemistry. Selected solid-state compounds: metal-organic frameworks, nanoparticles and related materials for separation, catalysis, diagnostics.

Prerequisites: CHM231H5 and CHM243H5

Distribution Requirement: Science
Total Instructional Hours: 24L/12T
Mode of Delivery: In Class

CHM442H5 • Strategy & Control in Modern Drug Synthesis

Applications of advanced fundamentals to, and recent developments in, multi-step organic synthesis.

Prerequisites: CHM341H5 or CHM345H5
Recommended Preparation: CHM394H5 and CHM395H

Distribution Requirement: Science
Total Instructional Hours: 24L
Mode of Delivery: In Class

CHM444H5 • An Introduction to Medicinal Chemistry and Molecular Recognition

An introduction to drug discovery, design and development. This course will focus on the potential of proteins (enzymes, receptors, receptor structure and signal transduction) as targets for molecular therapeutic intervention. The strategies of finding a drug target, optimizing target interactions and synthetic molecular therapeutic development will all be considered and discussed. The modern technologies of targeting protein-protein interactions will also be covered.

Prerequisites: CHM361H5

Distribution Requirement: Science
Total Instructional Hours: 24L
Mode of Delivery: In Class

CHM462H5 • Revealing the Chemistry behind Biomolecules

Discussion course based on published research in biological chemistry and applications of chemistry to study processes of biological significance.

Prerequisites: CHM361H5
Recommended Preparation: CHM347H5 and CHM371H5

Distribution Requirement: Science
Total Instructional Hours: 24L
Mode of Delivery: In Class

CHM485H5 • Dissertation Based on Literature Research

A dissertation will be written based on literature research of a topic of current interest in the field of chemistry. The research will be conducted under the supervision of a chemistry faculty member other than the student's CPS489Y5 supervisor. The research topic must not overlap that of the student's CPS489Y5 project. The goals of this course are to achieve literature research expertise as well as in-depth knowledge of a particular chemistry topic, while perfecting scientific writing and oral presentation skills. Evaluation is based on a final written report describing the aims and results of the research, as well as an oral presentation of the work. The course is normally taken in the student's fourth year, in either the Fall or Winter terms, but may be taken in the Summer term. Enrolment in CHM485H5 requires submitting an application to the department before the end of the term prior to that in which it is intended to undertake the research. Independent Studies Application Forms may be found at http://uoft.me/cpsforms. Applications should be submitted to the CPS Undergraduate Assistant. Registration on ACORN is also required. Students are encouraged to consult with, and obtain the consent of, prospective supervisors before applying for enrolment. 

Prerequisites: 2.5 CHM/JCP credits at 300 level.

Distribution Requirement: Science
Total Instructional Hours: 24L
Mode of Delivery: In Class

CHM489Y5 • Introduction to Research in Chemistry

An experimental or theoretical research topic in chemistry will be investigated under the supervision of a chemistry faculty member other than the student's CHM485H5 supervisor. The research topic must not overlap that of the student's CHM485H5 research topic. In addition to learning to plan, conduct and evaluate a research program, students will receive training in written and oral presentation skills. Evaluation is based on interim and final written reports describing the aims and results of the research, as well as interim and final oral presentations of the work. The course is normally taken in the student's fourth year. Enrolment in CHM489Y5 requires submitting an application to the department in the spring term, with the application due date being the final day of classes. Independent Studies Application Forms may be found at http://uoft.me/cpsforms. Applications should be submitted to the CPS Undergraduate Assistant. Registration on ACORN is also required. Acceptance into the course is dependent on the student having achieved a satisfactory GPA, and reaching agreement with a potential supervisor. Students must consult with prospective supervisors before applying for enrolment, and must list at least two faculty members as possible supervisors. This course is restricted to students in the Chemistry Major, Biological Chemistry Specialist, and Chemistry Specialist Programs.

Prerequisites: 2.0 300 level credits in CHM/JCP and 1.0 credit from BIO206H5 and BIO314H5 and CHM372H5 and CHM373H5 and CHM394H5 and CHM395H5 and CHM396H5 and CHM397H5 and PHY324H5, with 0.5 credits from the 300-level CHM laboratory courses listed.
Exclusions: CHM499Y1 or JCB487Y5 or CHMD90Y3

Distribution Requirement: Science
Total Instructional Hours: 240P
Mode of Delivery: In Class

CPS398H5 • Teaching Opportunity Program in Sciences

A scholarly, active learning project in which students integrate and apply their understanding of science and pedagogy by observing, actively participating in, and reflecting on the teaching and learning process under the supervision of an experienced instructor/mentor. This course may be taken in either the Summer, Fall or Winter terms. Enrolment requires submitting an application to the department before the end of the term prior to that in which it is intended to undertake the research. Independent Studies Application Forms may be found at http://uoft.me/cpsforms. Students should plan for the course in March of the previous academic year and register as soon as their registration period begins. Students are encouraged to consult with, and obtain the consent of, prospective supervisors before applying for enrolment. Enrolment will depend on the availability of positions.

Prerequisites: This course is "by Instructor Approval". At least 10.0 courses completed and enrolment in a life, mathematical, or physical science major or specialist program; an average of B-(CGPA 2.7) or higher.

Course Experience: University-Based Experience
Distribution Requirement: Science
Total Instructional Hours: 30L
Mode of Delivery: In Class

CPS400Y5 • Chemical and Physical Sciences Internship

This internship opportunity will allow students to apply theoretical and practical skills acquired during their undergraduate education in order to gain vital industry experience. Students will be trained in effective job searching skills (writing a CV and a Cover Letter, participating in job interviews) and will gain valuable experiences that are sought after by employers in both public and private sectors. Students will be placed with various employers in the GTA based on their interest and skill set, and on the employer needs and availability. The placement is a 200 h unpaid internship. The Course Coordinator/Instructor(s) will schedule biweekly meetings to discuss the setup and progress of the student projects. Student attendance is mandatory. At the end of the term, students must submit a written report and prepare an oral presentation about the outcomes of their work experience. In order to be considered for the internship, students must apply for the course. The Course Coordinator will approve enrolment in the course based on the number of internship opportunities available, which will vary from year-to-year, and student qualifications (e.g. GPA, experience, qualifications related to the requirements of the available placement(s), and interview performance).

Prerequisites: For Chemistry Internships (CHM372H5 or CHM394H5 or CHM396H5) and an additional 1.0 credit from any 300/400 level CHM/JCP/JBC/BCH/FSC courses. For Earth Science/Geology Internships: (ERS301H5 and ERS303H5) and an additional 1.0 credit from any 300/400 level courses. For Physics Internships: (PHY324H5 and PHY347H5) and an additional 1.0 credit from any 300 or 400 level PHY/JCP courses.
Recommended Preparation: For Chemistry Internships: (CHM373H5 or CHM395H5 or CHM397H5) For Earth Science & Geology Internships: ERS302H5 and ERS311H5 and ERS401H5 For Physics Internships PHY325H5 and PHY332H5 and PHY333H5
Enrolment Limits: Students must be in their fourth year of study and registered in one of following Programs: Chemistry Major, Chemistry Specialist, Biological Chemistry Specialist, Earth Science Major, Earth Science Specialist, Geology Specialist, Physics Major, Biomedical Physics Specialist.

Course Experience: Partnership-Based Experience
Distribution Requirement: Science
Mode of Delivery: In Class

CPS401Y5 • Research and Development in Science Education

This course is intended for students in a CPS or Environmental Science Major or Specialist program. It provides an experiential learning opportunity with secondary school students and teachers. Students will research the literature of science pedagogy and acquire pedagogical content knowledge, particularly that of problem-based learning and the use of case studies. Then, through the creation of original, problem-based learning materials for Grades 11 and 12 classes and the preparation of teachers’ notes for these materials, they will enhance their subject specialization knowledge. They will then assist a teacher in implementing their materials in a school or, where the materials involve experiments, in the field or in the UTM teaching laboratories. The course is normally taken in the student's fourth year. Enrollment requires submitting an application to the CPS Department in the spring term, with the application due date being the final day of classes. Independent Studies Application Forms may be found at http://uoft.me/cpsforms. Applications should be submitted to the CPS Undergraduate Assistant. Registration on ACORN is also required.

Prerequisites: Enrolment in a CPS or Environmental Science Major or Specialist program with a minimum CGPA of 2.7 and 9.0 credits, including at least 2.0 credits at the 200-level in CHM or ERS or ENV or GGR or PHY

Course Experience: University-Based Experience
Distribution Requirement: Science
Total Instructional Hours: 240P
Mode of Delivery: In Class

CPS489Y5 • Introduction to Research in the Chemical and Physical Sciences

Students will work toward the completion of an experimental or theoretical research project in an area of study within the chemical and physical sciences, namely, astronomy, chemistry, earth sciences or physics. Projects will be based on current trends in research and students will work to complete their projects with guidance provided by a team of facilitators and faculty advisors consisting of course coordinators and a researcher from the Department of Chemical and Physical Sciences. In addition to the rigorous development of research skills, the course will also provide students with training and practical experience in project management techniques and practical research, literary and communications skills development. CPS489Y5 requires submitting an application to the department Application forms may be found at http://uoft.me/cpsforms. Applications should be submitted to the CPS Undergraduate Assistant.

Prerequisites: (2.0 credits at the 300 level from BIO or CHM or JBC or JCP or ERS or ESS or PHY) and (1.0 credit from BIO206H5 or BIO314H5 or CHM372H5 or CHM373H5 or CHM394H5 or CHM395H5 or CHM396H5 or CHM397H5 or ERS201H5 or ERS202H5 or PHY324H5 or PHY347H5 or JCP321H5 or JCP322H5 or PHY325H5 or PHY332H5 or PHY333H5 or PHY343H5 or PHY351H5)
Exclusions: BIO400Y5 or BIO481Y5 or CBJ481Y5 or CHM489Y5 or ERS470Y5 or ERS471H5 or ERS472H5 or PHY489Y5 or BCH472Y1 or BCH473Y1 or CHM499Y1 or CSB497H1 or CSB498Y1 or CSB499Y1 or ESS491H1 or ESS492Y1 or MGY480Y1 or PHY478H1 or PHY479Y1 or BIOD98Y3 or CHMD90Y3 or CHMD91H3 or ESSD09H3 or ESSD10H3 or PSCD10H3

Course Experience: University-Based Experience
Distribution Requirement: Science
Total Instructional Hours: 240P
Mode of Delivery: In Class

FSC311H5 • Forensic Chemistry

This course focuses on the analysis of physical evidence based on the principles of analytical chemistry. Students will gain knowledge in the theory and operation of forensically relevant chemical and instrumental techniques used for the analysis of evidentiary items, including drug/alcohol analysis, gunshot residue, explosives, paint analysis, etc. Students will also develop skills relating to the interpretation, limitation, and implications of analytical results in a forensic context. (Priority given first to Forensic Science Specialists and Majors; then Minors.)

Prerequisites: CHM211H5 and (CHM110H5 and CHM120H5) or CHM140Y5
Recommended Preparation: FSC239Y5 and CHM311H5

Distribution Requirement: Science
Total Instructional Hours: 36L/36P
Mode of Delivery: In Class

JBC472H5 • Seminars in Biotechnology

An introduction to current research in biochemistry and biotechnology, through seminars and literature reviews, presented by invited speakers and students. Subject areas include biotechnology, biomaterials, enzyme engineering, biosensors, drug delivery, spectrometry, separations chemistry, and bioinformatics.

Prerequisites: BIO372H5 and CHM361H5 and (CHM362H5 or BIO315H5)

Distribution Requirement: Science
Total Instructional Hours: 36L
Mode of Delivery: In Class

JCB487Y5 • Advanced Interdisciplinary Research Laboratory

Students will work together as members of a multidisciplinary team toward the completion of an interdisciplinary experimental or theoretical research project. Teams will be comprised of at least three students, with representation from at least three areas of specialization, namely, astronomy, biology, chemistry, earth sciences or physics. The interdisciplinary projects will be based on current trends in research and student teams will work to complete their projects with guidance provided by a team of faculty advisors from the Biology Department and the Department of Chemical and Physical Sciences. In addition to the rigorous development of research skills, the course will also provide students with training and practical experience in project management techniques and teamwork skills development. JCB487Y5 requires submitting an application to the department before the end of June for Fall enrolment. Application forms may be found at http://uoft.me/cpsforms. Application should be submitted to the CPS Undergraduate Assistant. Registration on ACORN is also required.

Prerequisites: (2.0 credits at the 300 level from BIO or CHM or JBC or JCP or ERS or ESS(G) or PHY) and (1.0 credit from BIO206H5 or BIO314H5 or CHM372H5 or CHM373H5 or CHM394H5 or CHM395H5 or CHM396H5 or CHM397H5 or ERS201H5 or ERS202H5 or PHY324H5 or PHY347H5). Normally taken in 4th year. Students must obtain approval from the faculty member(s) who will serve as the supervisor(s) in advance of the start of the course.
Exclusions: BIO400Y5 or BIO481Y5 or CBJ481Y5 or CHM489Y5 or ERS470Y5 or ERS471H5 or ERS472H5 or PHY489Y5 or BCH472Y1 or BCH473Y1 or CHM499Y1 or CSB497H1 or CSB498Y1 or CSB499Y1 or ESS491H1 or ESS492Y1 or MGY480Y1 or PHY478H1 or PHY479Y1 or BIOD98Y3 or CHMD90Y3 or CHMD91H3 or ESSD09H3 or ESSD10H3 or PSCD10H3

Course Experience: University-Based Experience
Distribution Requirement: Science
Total Instructional Hours: 240P
Mode of Delivery: In Class

JCP221H5 • Thermodynamics

An introduction to equilibrium thermodynamics with application to ideal and non-ideal systems: covering the concepts of work and heat, the laws of thermodynamics, internal energy, enthalpy and entropy, the chemical potential, states of matter, phase rules and phase diagrams, and chemical equilibria. Kinetics topics include rate laws, both differential and integrated, rate constants, activated complex theory, and temperature effects.

Prerequisites: [(CHM110H5 and CHM120H5 with a minimum grade of 60% in CHM120H5) or (PHY136H5 and PHY137H5) or (PHY146H5 and PHY147H5 )] and [(MAT132H5 and MAT134H5) or (MAT135H5 and MAT136H5) or (MAT137H5 and MAT139H5) or (MAT157H5 and MAT159H5) or MAT134Y5 or MAT135Y5 or MAT137Y5 or MAT157Y5]
Exclusions: CHM220H1 or CHM221H1 or CHM225Y1 or CHMB20H3 or CHMB23H3
Recommended Preparation: MAT212H5 or MAT223H5 or MAT232H5 or MAT233H5 or MAT236H5 or MAT240H5 or MAT242H5 or MAT244H5

Distribution Requirement: Science
Total Instructional Hours: 36L/12T
Mode of Delivery: In Class

JCP265H5 • Introduction to Scientific Computing

This course is an introduction to computing in the physical sciences. Students will gain experience utilizing numerical software tools used in both academic and industrial settings. A variety of numerical techniques will be covered, with topics to include: curve fitting, numerical approximations of derivatives and integrals, root finding, solutions of differential equations, Fourier series, Monte Carlo methods, and more. Students will also acquire skills in data analysis and visualization. No prior experience in computer programming is required.

Prerequisites: [PHY146H5 or PHY136H5 (minimum grade of 80%)] and [PHY147H5 or PHY137H5 (minimum grade of 80%)] and [(MAT135H5 and MAT136H5) or (MAT137H5 and MAT139H5) or (MAT135Y5 or MAT137Y5)]
Exclusions: CSC108H5 or CSC108H1 or CSC120H1 or CSC148H1 or CSCA08H3

Distribution Requirement: Science
Total Instructional Hours: 24L/24P
Mode of Delivery: In Class

JCP321H5 • Quantum Mechanics I: Foundations

A first course covering basic concepts of quantum mechanics. Topics include: de Broglie waves and wave-particle duality, the postulates of quantum mechanics, the Schrödinger equation, Dirac notation, the square potential well and potential barriers, the harmonic oscillator, the rigid rotor, atoms, molecules and solids.

Prerequisites: (MAT212H5 or MAT223H5 or MAT232H5 or MAT242H5 or MAT244H5) and (PHY136H5 and PHY137H5) or (PHY146H5 and PHY147H5) and (JCP221H5 or PHY245H5) 
Exclusions: CHM326Y1 or PHY256H1 or PHY356H1 or PHYB56H3 or PHYC56H3

Distribution Requirement: Science
Total Instructional Hours: 36L
Mode of Delivery: In Class

JCP322H5 • Statistical Mechanics

Statistical mechanics provides a framework for understanding macroscopic properties of many-body systems (such as solids, liquids, or gases) from the underlying dynamics of the constituent particles. Topics to be introduced include microstates, entropy, partition functions, free energy and various ensemble formalisms. These tools will be used to calculate thermodynamic and equilibrium properties of both classical and quantum mechanical systems from the ideal gas, to ferromagnetism, to Bose-Einstein condensation.

Prerequisites: JCP321H5
Exclusions: CHM328H1 or PHY452H1 or CHMC20H3

Distribution Requirement: Science
Total Instructional Hours: 36L
Mode of Delivery: In Class

JCP410H5 • Modelling of Biochemical Systems

An introduction to mathematical modelling of complex biological systems, with a focus on biochemical kinetic models, their numerical simulation, and methods for analytically and computationally studying their behaviour. This is a one-term independent-study project course: students will be given a set of directed readings, then assisted in selecting an existing model from the literature. After reproducing existing results, students will be tasked with extending the model in a direction of their own choosing; this can include exploring different parameter regimes, incorporating new or different aspects of the underlying biology, or applying different analytical techniques. Students will work with the instructor to select a suitable project, matching their background and interests. Formal lectures will be replaced with a series of weekly meetings with the instructor to discuss progress and plans.

Prerequisites: (JCP221H5 or PHY241H5) and PHY245H5 and (MAT212H5 or MAT223H5 or MAT232H5 or MAT242H5 or MAT244H5)

Distribution Requirement: Science
Total Instructional Hours: 24S
Mode of Delivery: Online, In Class

JCP421H5 • Quantum Mechanics II: Applications

The course offers an in-depth examination of the fundamental principles of quantum theory and a guide to its applications. Topics may vary but will include: time-independent Schrodinger equation, quantum dynamics in Heisenberg and Schrodinger pictures, time-independent perturbation theory, WKB approximation, variational method, spin, addition of angular momentum, time-dependent perturbation theory, scattering.

Prerequisites: JCP321H5 and PHY325H5
Exclusions: PHYC563H3 or PHY456H1

Distribution Requirement: Science
Total Instructional Hours: 24L/12T
Mode of Delivery: In Class

JCP422H5 • NMR Spectroscopy

Fundamentals of NMR spectroscopy including classical and quantum descriptions, NMR parameters and relaxation times, product operators, multi-dimensional NMR, and solid-state techniques.

Prerequisites: (JCP221H5 or PHY241H5) and PHY245H5 and (MAT212H5 or MAT223H5 or MAT232H5 or MAT242H5 or MAT244H5)
Recommended Preparation: JCP321H5 and CHM361H5

Distribution Requirement: Science
Total Instructional Hours: 24L
Mode of Delivery: In Class

JCP463H5 • Techniques in Structural Biology

Biochemical and biophysical approaches to studies of protein interactions, structures, and dynamics. Theory and practice of specific experimental approaches will provide a fundamental understanding on information potential and technique limitations. Specific applications from the current literature will be discussed. Student evaluations will include oral presentations describing studies using the techniques.

Prerequisites: CHM361H5 or (PHY332H5 or PHY333H5)
Recommended Preparation: CHM362H5 and JCP221H5

Distribution Requirement: Science
Total Instructional Hours: 24L/12T
Mode of Delivery: In Class

Printer-friendly Version