- HBA · 4 years
- Work experience details
- ~High 80s to low 90s



AI-generated ink illustration
Conceptual study artwork, not a photograph of teaching facilities.
Unidex · generated with ImageGen
Checked 2026-11-05
Symbolic subject artwork; no university facility depicted
75% published Ontario minimum
The university publishes a 75% academic minimum, not an entering-average range.
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2027 entry
School deadline, not a student task. Universities receive these grades by November 26. Verbatim: "Deadline for the OUAC to receive all midterm or final grades available for 4U/M courses from Ontario high schools. Schools may report in-progress grades for full-year courses as soon as they are available." Universities receive these by the target date of November 26, 2026. This is a deadline on the high school, not on the student, but it governs which grades a university sees in the first round.
Verbatim: "There is no specific Undergraduate application deadline if you are a Group B applicant. Deadlines vary at each university and sometimes depend on the program. Visit the university websites or contact the universities directly for their deadlines. If you are interested in a program but the deadline has passed, you may contact the university's admission office for help. Be aware of university-specific deadlines for submitting transcripts and portfolios, if required, and for arranging interviews and auditions. You must ensure the OUAC has enough time to process your choices before the universities' program deadlines." OUAC defines Group B as anyone who does not meet the Group A criteria, e.g. not currently taking an Ontario high school course, a Canadian outside Ontario, an international applicant, a postsecondary transfer student, or a mature applicant.
Entry terms · Fall 2027
Domestic high-school entry verified for this cycle. Other regular intakes were not confirmed.
OUInfo 2027–28 · public program index captureLaurentian exact Ontario first-entry programme
Canadian applicants applying to this degree
International applicants outside the Ontario high-school route
Options within this engineering discipline.
BEng
The General Mechanical Engineering option includes machine design and nine credits of technical electives.
Named courses from the published year-grouped requirements for this engineering discipline.
General
Published year grouping. Technical and complementary study electives follow separate menus.
Atomic and molecular structure, nuclear chemistry, stoichiometry, periodicity and solutions.
Health and safety training in hazards, risk controls, electrical and fire safety, laboratories and work at height.
Computer-aided mechanical design through graphics, practical assignments and a term project.
Engineering writing and speaking through workshops, group research, collaborative reports, peer editing and presentations.
Engineering ethics, licensing, technical communication and a team design project.
Limits, derivatives, applications, introductory integration, areas and volumes.
Mechanics, vectors, energy, matter, thermodynamics and waves.
Equilibrium, structures, frames, friction, centroids and moments of area.
Integration, differential equations, polar curves, sequences, series and multivariable functions.
Linear systems, matrices, vector spaces, transformations, eigenvalues and complex numbers.
Optics, electricity, magnetism and modern physics.
Data distributions, estimation, hypothesis testing, regression, correlation and statistical software.
Published year grouping. Technical and complementary study electives follow separate menus.
Develop structured programs using control flow, subprograms, recursion and basic data structures.
Continue safety training through risk, regulations, workplace mental health, incident investigation and ethics.
Study mechanical, chemical, electrical and thermal properties of metals, alloys, polymers and refractory materials.
Apply thermodynamic laws to matter, energy conversion and engineering processes.
Analyse stress, strain, beams, pressure vessels and material failure, with mechanical testing labs.
Model particle and rigid-body dynamics in two and three dimensions for mechanical design.
Solve first-order, higher-order and systems of differential equations using series and matrix methods.
Develop modular, reusable software with testing, documentation, objects, interfaces and data structures.
Apply fluid continuity, momentum and energy to pipes, channels, pumps, compressors and flow measurement.
Study power and refrigeration cycles, mixtures, equilibrium and thermodynamic relations.
Analyse beam bending, shear, energy methods, buckling and structural connections, with testing labs.
Optimal mechanism design using linkages, cams and flywheels, simulation and constrained optimization.
Use numerical methods for equations, interpolation, integration, differentiation and differential equations.
Published year grouping. Technical and complementary study electives follow separate menus.
Continue safety training through design, human factors, leadership, risk and professional ethics.
Evaluate engineering projects using cash flows, financing, tax, depreciation, replacement, uncertainty and risk.
Analyse fluid flow through conservation laws, viscosity, boundary layers, compressibility and turbomachinery.
Compare manufacturing processes, costs, production rates, automation and product design for manufacture.
Model and simulate dynamic mechanical, electrical, thermal and fluid systems in time and frequency domains.
Study motors, generators, power electronics and the control and assessment of electromechanical actuators.
Apply finite element theory, discretisation, stiffness matrices and solution methods to mechanical problems.
Design machine components using stress and fatigue analysis, connections, bearings, springs and gears.
Analyse and design feedback controls, including stability, response, controllers and digital systems.
Evaluate and improve an existing design through a group project focused on risk and failure prevention.
Manage engineering projects through scope, schedules, quality, costs, resources and risk.
Published year grouping. Technical and complementary study electives follow separate menus.
Complete safety training in process management, electrical and robotics risks, crisis communication and workplace wellness.
Indigenous innovation, design and problem-solving through First Nations, Métis and Inuit knowledge, materials and case studies.
Apply conduction, convection and radiation to heat exchangers, phase changes and transient systems.
Select and calibrate sensors, acquire signals and analyse uncertainty in practical measurement systems.
Design hydraulic and pneumatic components and circuits for force and motion control.
Integrate earlier mechanical engineering studies in a final-year design project.
Design mine ventilation, air conditioning and dust or fume controls using fans, measurements and surveys.
Measure and model the mechanical behaviour of biological tissues, including bone, cartilage, muscles and tendons.
Analyse and control robotic manipulators through kinematics, dynamics, trajectories and practical labs.
Examine engineering law, ethics, technical communication, sustainability and technology’s relationship with society.
Mechatronics
Published year grouping. Technical and complementary study electives follow separate menus.
Atomic and molecular structure, nuclear chemistry, stoichiometry, periodicity and solutions.
Health and safety training in hazards, risk controls, electrical and fire safety, laboratories and work at height.
Computer-aided mechanical design through graphics, practical assignments and a term project.
Engineering writing and speaking through workshops, group research, collaborative reports, peer editing and presentations.
Engineering ethics, licensing, technical communication and a team design project.
Limits, derivatives, applications, introductory integration, areas and volumes.
Mechanics, vectors, energy, matter, thermodynamics and waves.
Equilibrium, structures, frames, friction, centroids and moments of area.
Integration, differential equations, polar curves, sequences, series and multivariable functions.
Linear systems, matrices, vector spaces, transformations, eigenvalues and complex numbers.
Optics, electricity, magnetism and modern physics.
Data distributions, estimation, hypothesis testing, regression, correlation and statistical software.
Published year grouping. Technical and complementary study electives follow separate menus.
Develop structured programs using control flow, subprograms, recursion and basic data structures.
Continue safety training through risk, regulations, workplace mental health, incident investigation and ethics.
Study mechanical, chemical, electrical and thermal properties of metals, alloys, polymers and refractory materials.
Apply thermodynamic laws to matter, energy conversion and engineering processes.
Model particle and rigid-body dynamics in two and three dimensions for mechanical design.
Analyse stress, strain, beams, pressure vessels and material failure, with mechanical testing labs.
Solve first-order, higher-order and systems of differential equations using series and matrix methods.
Develop modular, reusable software with testing, documentation, objects, interfaces and data structures.
Apply fluid continuity, momentum and energy to pipes, channels, pumps, compressors and flow measurement.
Study power and refrigeration cycles, mixtures, equilibrium and thermodynamic relations.
Analyse beam bending, shear, energy methods, buckling and structural connections, with testing labs.
Optimal mechanism design using linkages, cams and flywheels, simulation and constrained optimization.
Use numerical methods for equations, interpolation, integration, differentiation and differential equations.
Published year grouping. Technical and complementary study electives follow separate menus.
Design and analyse data structures, searching, sorting, recursion and graph algorithms.
Continue safety training through design, human factors, leadership, risk and professional ethics.
Evaluate engineering projects using cash flows, financing, tax, depreciation, replacement, uncertainty and risk.
Analyse fluid flow through conservation laws, viscosity, boundary layers, compressibility and turbomachinery.
Compare manufacturing processes, costs, production rates, automation and product design for manufacture.
Model and simulate dynamic mechanical, electrical, thermal and fluid systems in time and frequency domains.
Study motors, generators, power electronics and the control and assessment of electromechanical actuators.
Apply finite element theory, discretisation, stiffness matrices and solution methods to mechanical problems.
Design machine components using stress and fatigue analysis, connections, bearings, springs and gears.
Analyse and design feedback controls, including stability, response, controllers and digital systems.
Design, integrate and program microprocessor interfaces for data acquisition and control.
Evaluate and improve an existing design through a group project focused on risk and failure prevention.
Manage engineering projects through scope, schedules, quality, costs, resources and risk.
Published year grouping. Technical and complementary study electives follow separate menus.
Complete safety training in process management, electrical and robotics risks, crisis communication and workplace wellness.
Apply conduction, convection and radiation to heat exchangers, phase changes and transient systems.
Indigenous innovation, design and problem-solving through First Nations, Métis and Inuit knowledge, materials and case studies.
Select and calibrate sensors, acquire signals and analyse uncertainty in practical measurement systems.
Model and design digital feedback controls using sampling, transforms, stability and controller implementation.
Study digital logic, programmable devices, microprocessors and practical PLC and FPGA programming.
Integrate earlier mechanical engineering studies in a final-year design project.
Study network models, protocols, topologies, routing, web systems and security.
Examine engineering law, ethics, technical communication, sustainability and technology’s relationship with society.
Analyse and control robotic manipulators through kinematics, dynamics, trajectories and practical labs.
Published Fall and Winter terms of the Mechanical Engineering General option. The separate Mechatronics plan remains in the study requirements. Technical and complementary selections appear in notes. Co-op work terms follow a separate placement schedule.
Atomic and molecular structure, nuclear chemistry, stoichiometry, periodicity and solutions.
Health and safety training in hazards, risk controls, electrical and fire safety, laboratories and work at height.
Computer-aided mechanical design through graphics, practical assignments and a term project.
Engineering writing and speaking through workshops, group research, collaborative reports, peer editing and presentations.
Engineering ethics, licensing, technical communication and a team design project.
Limits, derivatives, applications, introductory integration, areas and volumes.
Mechanics, vectors, energy, matter, thermodynamics and waves.
Complementary Studies Electives (3 credits).
Equilibrium, structures, frames, friction, centroids and moments of area.
Integration, differential equations, polar curves, sequences, series and multivariable functions.
Linear systems, matrices, vector spaces, transformations, eigenvalues and complex numbers.
Optics, electricity, magnetism and modern physics.
Data distributions, estimation, hypothesis testing, regression, correlation and statistical software.
Develop structured programs using control flow, subprograms, recursion and basic data structures.
Continue safety training through risk, regulations, workplace mental health, incident investigation and ethics.
Study mechanical, chemical, electrical and thermal properties of metals, alloys, polymers and refractory materials.
Apply thermodynamic laws to matter, energy conversion and engineering processes.
Analyse stress, strain, beams, pressure vessels and material failure, with mechanical testing labs.
Model particle and rigid-body dynamics in two and three dimensions for mechanical design.
Solve first-order, higher-order and systems of differential equations using series and matrix methods.
Develop modular, reusable software with testing, documentation, objects, interfaces and data structures.
Apply fluid continuity, momentum and energy to pipes, channels, pumps, compressors and flow measurement.
Study power and refrigeration cycles, mixtures, equilibrium and thermodynamic relations.
Analyse beam bending, shear, energy methods, buckling and structural connections, with testing labs.
Optimal mechanism design using linkages, cams and flywheels, simulation and constrained optimization.
Use numerical methods for equations, interpolation, integration, differentiation and differential equations.
Technical Elective (3 credits).
Continue safety training through design, human factors, leadership, risk and professional ethics.
Evaluate engineering projects using cash flows, financing, tax, depreciation, replacement, uncertainty and risk.
Analyse fluid flow through conservation laws, viscosity, boundary layers, compressibility and turbomachinery.
Compare manufacturing processes, costs, production rates, automation and product design for manufacture.
Model and simulate dynamic mechanical, electrical, thermal and fluid systems in time and frequency domains.
Study motors, generators, power electronics and the control and assessment of electromechanical actuators.
Technical Elective (3 credits).
Apply finite element theory, discretisation, stiffness matrices and solution methods to mechanical problems.
Design machine components using stress and fatigue analysis, connections, bearings, springs and gears.
Analyse and design feedback controls, including stability, response, controllers and digital systems.
Evaluate and improve an existing design through a group project focused on risk and failure prevention.
Manage engineering projects through scope, schedules, quality, costs, resources and risk.
Technical Elective (3 credits). Complementary Studies Elective (3 credits).
Complete safety training in process management, electrical and robotics risks, crisis communication and workplace wellness.
Indigenous innovation, design and problem-solving through First Nations, Métis and Inuit knowledge, materials and case studies.
Apply conduction, convection and radiation to heat exchangers, phase changes and transient systems.
Select and calibrate sensors, acquire signals and analyse uncertainty in practical measurement systems.
Design hydraulic and pneumatic components and circuits for force and motion control.
Integrate earlier mechanical engineering studies in a final-year design project.
ENGR-4595E continues from Fall. Complementary Studies Elective (3 credits).
Design mine ventilation, air conditioning and dust or fume controls using fans, measurements and surveys.
Measure and model the mechanical behaviour of biological tissues, including bone, cartilage, muscles and tendons.
Choose one
General Mechanical Engineering Year 4 Winter requirement. Complete one of the two courses.
Analyse and control robotic manipulators through kinematics, dynamics, trajectories and practical labs.
Examine engineering law, ethics, technical communication, sustainability and technology’s relationship with society.
University-published career examples; some require further study or registration. These are not ranked graduate outcomes. These published examples are for the Mechanical Engineering route; other engineering routes may differ.
Canadian Engineering Accreditation Board accreditation for this named bachelor’s programme.
University-published career examples; some require further study or registration. These are not ranked graduate outcomes. These published examples are for the Mechanical Engineering route; other engineering routes may differ.
Engineering · 36 credits
2026–27 · 36 credits · academic year · CAD
Ontario example · Choose your category
Published full-time undergraduate Engineering tuition at the 36-credit reference load for the named BEng discipline. Incidental and association fees are separate.
Housing and meals are outside this estimate.
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