Professional Degree courses in Dentistry, Education, Law, Medicine and Theology (MTS, MDiv)
Courses offered by Continuing Studies
Graduate Studies courses
* These courses are equivalent to pre-university introductory courses and may be counted for credit in the student's record, unless these courses were taken in a preliminary year. They may not be counted toward essay or breadth requirements, or used to meet modular admission requirements unless it is explicitly stated in the Senate-approved outline of the module.
1.0 course not designated as an essay course
0.5 course offered in first term
0.5 course offered in second term
0.5 course offered in first and/or second term
1.0 essay course
0.5 essay course offered in first term
0.5 essay course offered in second term
0.5 essay course offered in first and/or second term
1.0 accelerated course (8 weeks)
1.0 accelerated course (6 weeks)
0.5 graduate course offered in summer term (May - August)
0.25 course offered within a regular session
0.25 course offered in other than a regular session
1.0 accelerated course (full course offered in one term)
0.5 course offered in other than a regular session
0.5 essay course offered in other than a regular session
A course that must be successfully completed prior to registration for credit in the desired course.
A course that must be taken concurrently with (or prior to registration in) the desired course.
Courses that overlap sufficiently in course content that both cannot be taken for credit.
Many courses at Western have a significant writing component. To recognize student achievement, a number of such courses have been designated as essay courses and will be identified on the student's record (E essay full course; F/G/Z essay half-course).
A first year course that is listed by a department offering a module as a requirement for admission to the module. For admission to an Honours Specialization module or Double Major modules in an Honours Bachelor degree, at least 3.0 courses will be considered principal courses.
What our planet is made of, how it works, and how it affects us. Framed on the interactions of the lithosphere, hydrosphere, atmosphere and biosphere. Specific topics include: geological time and earth history; formation of rocks and minerals; rock deformation; volcanoes and earthquakes; plate tectonics and mountain building; natural resources.
An overview of the origin and development of Earth and solar system; constitution and active processes of Earth interior; how these processes have shaped Earth evolution in the past and how they continue to control surface phenomena such as earthquake and volcanic activity. Labs will introduce the main resource exploration techniques.
An introduction to geology covering rock forming minerals and rock forming processes. Emphasis will be placed on how mineral and hydrocarbon resources develop. A survey of the geological record is carried out to illustrate how resources are classified and distributed through time.
This course introduces students to geologic materials and processes and examines their significance to humans. Emphasis is placed on the evidence for perturbations of Earth's natural environments by humans that impact on our planet's future. Specific topics include utilization of natural resources, waste management, water quality, geological hazards, and global change.
Concepts of the development of life on Earth. Darwinian evolution and modern concepts of evolution. Genetics and evolution. Mode and rate of evolution. A survey of the vertebrate fossil record with focus on particular groups, including dinosaurs. Major extinction events in the fossil record. Origin of the geological time scale.
Our best perception of the origin of the Universe, the Milky Way Galaxy, and our Solar System, meteorites, asteroids, comets and the formation of planets. The slow growth of Planetary Science reason and analysis of hypotheses. Why and how Earth evolved along a path radically different than the other planets.
An examination of Earth materials used over the history of human culture. Topics include: Earth materials as media in the Visual Arts (pigments, stone and clay); rocks, minerals and fossils as motifs in famous works of art; landscape photography; gemstones and jewelry; earth materials in wine and cuisine, and modern technology.
An introduction to the Earth as a large heat engine; topics will focus on large scale dynamic processes that occur in the deep interior (mantle and core convection) and their relation to activity and phenomena on the face of the Earth (tectonic plate motions, plate interactions, earth magnetic field, etc.).
A field-trip based course exploring the history and patterns of geology, physical landscapes and resources of southwestern Ontario. To be offered in the first half of the fall semester; four mandatory, full day field excursions supported by a weekly lecture.
Extra Information:Enrolment limited to students registered in the Minor or Major in Geology; recommended to be taken in second year and may not be taken after Earth Sciences 2250Y. A transportation fee is required, see the Department of Earth Sciences website for more information. This course does not fulfill the field course requirements for students registered in a Specialization or Honours Specialization within the Department or Earth Sciences.
Rock types and their distribution within the Earth's crust are a result of tectonics, including continental rifting, seafloor spreading, subduction, obduction, and orogenic uplift and collapse. Lectures synthesize and explain major rock types in primary and secondary tectonic settings. Laboratories examine rocks and textures in hand specimens.
Prerequisite(s): Any 0.5 Earth Sciences course at the 1000 level or registration in a Major, Specialization, or Honours Specialization in the Faculty of Science or in the Basic Medical Sciences.
Extra Information: 2 lecture hours, 3 laboratory hours.
Deformation of Earth's crust; description of geological structures; construction and interpretation of geologic maps, cross sections and block diagrams; stereographic and orthographic representation of structural data; mechanical behavior of rocks; origin and tectonic significance of geological structures.
Introduction to mineral chemistry, crystal chemistry and mineral paragenesis, with emphasis on rock-forming minerals and ore minerals. Identification of minerals and mineral properties in hand specimen and thin section.
A brief introduction to applied seismology - the investigation of Earth structure using sound waves in rocks. Topics include: seismic reflection methods, a cornerstone of oil and gas exploration; seismic refraction methods; earthquake seismology. This lab-oriented course will provide hands-on experience with computers and analysis of large digital data sets.
An introduction to data analysis and visualization techniques, including: data types and transformation, statistical methods to characterize uni- to multi-variate data, spatial data and interpolative mapping, time series and Fourier transformation, and signal processing. Earth science applications will be emphasized. Includes MATLAB basics for data and time-series analysis and visualization.
Effects of temperature, pressure and bulk composition on stabilities of minerals in natural geological settings are evaluated using thermodynamic principles. Reaction rates among minerals and fluids, including the effects of natural catalysts and inhibitors, and biotic mediation are addressed. Introduction to the principles of radioisotope and stable isotope geochemistry.
An introduction to planetary science and the exciting frontier of space exploration; emphasis is placed on the processes shaping the planets and moons of the Solar System and how this relates to the evolution of Earth, the Solar System, and life; attention paid to current results from planetary exploration missions.
Rare events so catastrophic that they leave evidence in the geologic record and threaten life on Earth. Included are impacts by asteroids and comets, eruptions from giant resurgent volcanic calderas, large to mega-earthquakes and associated tsunami, and dramatic reduction of atmospheric oxygen by release of reservoirs of methane hydrate.
Earth processes leading to disasters; the amplification of earth processes by human activity; individual, national and global policies mitigating natural disasters. Volcanoes and earthquakes in the context of plate tectonic processes. Mass wasting, large storms, floods, and fires; global climate change.
Eleven day field camp in the vicinity of Whitefish Falls, northern Lake Huron. Students will examine Precambrian metasedimentary and Early Paleozoic sedimentary rocks, make a geological map, measure a stratigraphic section and learn techniques of paleocurrent analysis.
Extra Information: 11 day field course.
Note: Students must register prior to the September "Add" deadline for full courses (see Undergraduate Sessional Dates). Partial cost of the field expenses must be borne by the student, and is payable to the Department prior to the September "Add" deadline. There is an associated cost with this course, see the Department of Earth Sciences website for more information. Fees are non-refundable in the event of a course drop, except in extenuating circumstances.
Origins of sedimentary grains. Transport processes. Characteristics of the main types of sedimentary basins. Stratigraphic methods, including litho-, allo-, bio-, chrono-, and magneto-stratigraphy. Labs include examination of sedimentary rocks, well-log correlation and seismic stratigraphic analysis. At least one field trip is organized.
A survey of the fossil record from bacteria, protista, calcareous algae, to invertebrate animals. Topics on each group of fossils include functional morphology, evolutionary trend, ancient living environments, contribution to sediment accumulation and reef-building, utility for dating and correlating rocks and for understanding long-term biodiversity change.
Introduction to physical geology with emphasis on the engineering oriented aspects of the Earth Sciences. Topics include: minerals and rocks; mass movements; interpretation of aerial photographs, topographic and geologic maps; surficial processes and their manifestations; surface and ground water; structural geology and subsurface processes; and earth resources.
The study of life in the universe, including the origin of life on Earth, the possibility of life elsewhere in the solar system/universe, and the future of human life off-Earth. This course will include topics that draw from biology, physics, astronomy, geology, chemistry, and other areas.
Prerequisite(s): 1.0 course(s) from any of Chemistry, Biology, or Physics at the 1000 level.
Extra Information: 2 lecture hours, 2 laboratory hours.
The study of crystal structure, crystal chemistry and stability of rock-forming minerals. Compatibility of atomic substitution in minerals (solid solution, exsolution) is viewed from structural and thermodynamic perspectives. Selected topics include crystal growth, X-ray diffraction (XRD), electron probe microanalysis (EPMA), colour in minerals, crystal field theory and mineral physics.
This course reviews the origin and evolution of our solar system and formation of the rocky planets and other bodies by examining dynamical evidence and meteorites. We examine meteorite mineralogy and textures using optical microscopy, X-ray diffraction and geochemical data. We also examine Earth impacts, the moon and Mars.
Study of igneous processes using rock and thin section descriptions (petrography). Discussion of how different compositions and conditions influence the phases present in a rock (phase equilibria). Association of different rock types with plate tectonic setting.
Identification and description of various types of siliciclastic and carbonate rocks; the important characteristics of sedimentary rocks and their key sedimentary features for interpretation of present and ancient despositional environments; survey of diagenetic processes that alter original properties of primary sediments.
Study of metamorphic processes using rock and thin section descriptions (petrography). Discussion of factors that control the mineralogy and physical attributes of different metamorphic rocks (e.g., temperature, pressure, composition, fluids). Use of phase equilibria and geochronology to understand metamorphic histories. Association of different rock types with plate tectonic setting.
An advanced course covering the geophysical techniques used for subsurface sensing, with applications to environmental studies and resource exploration. Data analysis includes seismology, gravity, electromagnetic and radiometric applications.
An introduction to physics of the Earth's interior. Major topics are: Earth structure from seismic observations, heat flow, the physics of minerals under high temperatures and pressures, equations of state, seismological, thermal and compositional models.
An introduction to the basic concepts of geodesy and geodetic surveying, to include geometrical and physical geodesy. Material covered will include datums and coordinate systems, space and surface geodetic techniques, gravity and precise leveling, uncertainty estimation, and error propagation. Specific applications will include GPS data collection and analysis.
Occurrence, movement, and behavior of water in the hydrologic cycle. The development of quantitative representations of hydrologic processes (e.g., precipitation, evapotranspirtation, runoff, infiltration and unsaturated flow, saturated flow, surface flow). Analysis of stream response hydrographs. Statistical models of predicting flood responses and water resource management.
Prerequisite(s): Any 1.0 course equivalent at the 1000 level from Calculus, Mathematics, Applied Mathematics, or Statistical Sciences, or the former Linear Algebra 1600A/B.
Extra Information: 2 lecture hours, 2 laboratory hours.
Acquisition of solutes by rain, surface and subsurface waters and their transportation and deposition in natural environments (e.g., formation of ore deposits). Natural sources of potential pollutants (e.g., heavy metals). Geochemical cycles of solutes and waters.
Eleven day field school in a deformed metamorphic terrain. Observation and documentation of geological features at outcrops. Three-dimensional thinking and reconstruction of structural geometry. Establishing overprinting relationships among structures. Mapping from mesoscopic to macroscopic scales. Kinematic interpretation and tectonic synthesis of geological data at different scales.
Extra Information: 11 day field course in May, 0.5 course.
Note: Students must register prior to the September "Add" deadline for full year courses (see Undergraduate Sessional Dates). Partial cost of the field expenses must be borne by the students, and is payable to the Department prior to the September "Add" deadline. There is an associated cost with this course, see the Department of Earth Sciences website for more information. Fees are non-refundable in the event of a course drop, except in extenuating circumstances. Students will receive the maximum subsidy if the course is a requirement for their module. In the case that the course is not a requirement, partial subsidy may be provided depending on the module in which the student is currently enrolled (please contact the Departmental Undergraduate Chair).
A study of geomicrobiological processes recorded in the Earth record and bacteria interactions in contemporary systems, including methods for the analysis of prokaryotes. The factors affecting their community structure and function, and their relationship to geochemistry. In the laboratory, students will develop bacteriological culture techniques used in geomicrobiological research.
A survey course introducing the broad field of mineral deposit geology and the importance of mineral resources. Global theories of ore genesis are considered in deposit classification. Various methods of ore petrology are discussed within the context of specific applications. Laboratory work focuses on reflected light microscopy in the practical study of ore suites.
The material covered builds directly on Earth Sciences 3370A/B Metallogenic models are applied to a wide spectrum of deposit types. Emphasis is placed on establishing geological criteria for mineral exploration. Laboratory work focuses on reflected light microscopy in practical studies of ore suites.
The study of the fundamental geological components of petroleum systems responsible for oil and natural gas accumulations in sedimentary basins. The fate of organic matter is traced along a path from source rocks, maturation, migration, to reservoir, trap and seal. Labs incorporate use of industry software.
Field study of the geology and biology of various Moon/Mars analogue sites in North America. Lectures/seminars/practical exercises will emphasize similarities and differences between the terrestrial sites and other planetary bodies, and the subtle interactions between geology and biology at each site.
Extra Information: A ten-day field course typically held in early May, but may be offered at other times of the year depending on weather in international locations.
Note: Students expecting to graduate in the current year's spring convocation cannot take the course. Students must register prior to the September "Add" deadline for full courses (see Undergraduate Sessional Dates). Partial cost of the field expenses must be borne by the student, and is payable to the Department prior to the September "Add" deadline. The cost per student will vary depending on travel destination. Fees are non-refundable in the event of a course drop, except in extenuating circumstances.
Advanced topics in the physics of the Earth and planets including: magnetism; paleomagnetism and the geomagnetic timescale; radioactivity, radioactive dating and Earth's age; elasticity and flexure of plates; principles of continuum mechanics; elastic properties of the Earth's lithosphere; principles of isostasy; rheology of rocks; shape and rotation of the Earth.
An advanced overview of seismic hazard analysis for earthquake engineering purposes including strong motion seismology, earthquake site response and site classification techniques. Students will assess earthquake site response from earthquake recordings, numerical simulations, and evaluate case studies worldwide. Various software programs are used to model predictions of earthquake site response.
Stable isotopes (O,H,C,S,N), atmosphere, hydrosphere, sedimentary and diagenetic systems, hydrothermal systems, fluid migration, ore-forming fluids, igneous and metamorphic rocks. Environmental applications: groundwater, oceans, wetlands, acid rain; acid mine drainage, climate fluctuation; global cycle modification. Radiogenic isotopes: dating techniques; crust and mantle evolution, environmental tracing.
Prerequisite(s):Earth Sciences 2230A/B or Earth Sciences 3341A/B or completion of any 2000 level half-course in Chemistry; or registration in the third or fourth year of an Environmental Sciences module; or permission of the Department.
The principles of metal concentration and deposition in magmatic and hydrothermal environments are examined. Natural and experimental data, including fluid inclusion, stable isotope, metal solubility, mineral stability, and metal partition behavior, are used to develop genetic models for ore deposits. Such models form the basis of mineral exploration strategies.
This course introduces the geologic processes operating on the solid surfaces in the solar system. Includes a survey of the terrestrial planets (including the Moon), large asteroids and comets, and the satellites of the outer solar system.
Occurrence, distribution, movement, chemistry and composition of ground water as a function of the geological environment; water quality and ground water contamination; collection and evaluation of hydrogeologic data; modelling ground-water flow and advective transport; case histories.
Field study of the geology of major structural provinces of North America. A ten day field trip at the beginning of September.
Prerequisite(s):Earth Sciences 3350Y and registration in the Honours Specialization in Geology, or the Honours Specialization in Geology for Professional Registration, Specialization in Geology for Professional Registration, or permission of the Department.
Extra Information: A ten day field course in early September. Note: Students must inform the Department of their intention to register in the course prior to registering. Partial cost of the field course must be borne by the student, and is payable to the Department. See Department of Earth Sciences website for updated fee information.
An off-campus Geophysical field school providing an introduction to geophysical techniques, including gravity, magnetic, seismic and electromagnetic methods. Classroom lectures, with accompanying outdoor sessions and field exercises. Offered in co-operation with other Universities, with participation from geophysical contractors. The course meets professional registration requirements for Field Techniques (Geophysics).
Antirequisite(s): The former Earth Sciences 4451Y.
Extra Information: A ten day field course in early September.
Note: Students must inform the Department of their intention to register in the course prior to May 1st, and register prior to August 15th. The field course is subsidized by the department. Students will pay $650 in 2014, payable by May 1st. The cost may increase by $25 every year thereafter.
A research-level field course to globally significant international or Canadian geological type localities. Students will gain practical field experience through the collection, analysis, and presentation of primary geological and geophysical field data. Lectures/ seminars/ practical exercises will emphasize the interaction between the physical, chemical, and biological aspects of the Earth system.
Prerequisite(s):Earth Sciences 2250Y and registration in year 4 of a Specialization or Honours Specialization offered by the Department of Earth Sciences with a minimum cumulative average of 70%.
Extra Information: A 10 to 14 day field course typically held in April/May although it may be offered at other times of the year given the weather in international locations.Note: Students must register prior to the September "Add" deadline for full year courses (see Undergraduate Sessional Dates). Registration in the course is conditional and competitive as course costs are largely covered by external funds raised by the department just prior to departure. A committee will adjudicate students on the basis of grades in program courses, a vision statement submitted as part of the application process, and demonstrated interest in field studies. Course may not be used towards minimum graduation requirements. Students who are not successful will have the course dropped from their record; normal drop dates do not apply to this course. Students are expected to contribute toward the cost of accommodation, food, and miscellaneous expenses.
An overview of the principal depositional environments of clastic and carbonate rocks, with emphasis on the recognition and interpretation of sedimentary facies and facies successions. Field and laboratory exercises involving outcrop and subsurface data will be used to integrate facies analysis with sequence stratigraphy.
The last 2 million years of Earth history. Glacial-interglacial cycles, global sea level and climate changes, and their causes. Extent and dynamics of North American Pliestocene ice sheets. Dating methods, Quaternary resources, waste disposal, air photo interpretation and surficial mapping. Laboratory exercises, field project, field trip.
Advanced-level study of the global distribution of ore deposits. Problems of metal source, transport and deposition are discussed within the context of crustal evolution. Ore types sensitive to secular changes in the Earth's lithosphere-hydrosphere-atmosphere-biosphere are emphasized. Field excursions to major ore districts may be arranged.
Advanced-level study of characterization and quantitative assessment of petroleum plays and prospects, with an emphasis on the integration of Geoscience, introductory reservoir engineering and basic economic indicators on the valuation of oil and gas properties. Labs will analyze case studies using industry software.
A presentation of research on a chosen problem. Original data must be generated from field or laboratory studies and analyzed using appropriate methodologies. The results must be integrated into the existing literature on the topic. Independence in the conduct and reporting of research must be demonstrated.
Prerequisite(s): Registration in year 4 of a Specialization or Honours Specialization offered by the Department of Earth Sciences, or permission of the Department.
Introduction to the technical and conceptual basis for applying remote sensing and image analysis to Earth and planetary science. Hands on experience in computer processing of remote sensing data from diverse terrestrial and planetary data sets.