- 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
Duration (years)
4 years
Windsor current calendar normal four-year Honours and professional degree policyWork experience
Optional co-op; Windsor lists it as a program highlight but publishes no work-term count on the program page.
Mechanical Engineering (Automotive) · official programme informationAcademic minimum
The university publishes a 74% academic minimum, not an entering-average range.
Windsor university-supplied OUInfo: Mechanical Engineering, Ontario entry 2027/28| Mon | Tue | Wed | Thu | Fri | Sat | Sun |
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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.
High School Student from Canada
High School Student from Outside Canada and the United States (International)
Applicants using IB subjects as equivalents for the named program’s Ontario prerequisites; no IB point-to-percentage conversion
Alberta, Northwest Territories and Nunavut secondary/CEGEP applicants; only the chosen programme’s actual prerequisites must be matched
British Columbia and Yukon secondary/CEGEP applicants; only the chosen programme’s actual prerequisites must be matched
Manitoba secondary/CEGEP applicants; only the chosen programme’s actual prerequisites must be matched
New Brunswick secondary/CEGEP applicants; only the chosen programme’s actual prerequisites must be matched
Newfoundland and Labrador secondary/CEGEP applicants; only the chosen programme’s actual prerequisites must be matched
Nova Scotia secondary/CEGEP applicants; only the chosen programme’s actual prerequisites must be matched
Prince Edward Island secondary/CEGEP applicants; only the chosen programme’s actual prerequisites must be matched
Québec CEGEP secondary/CEGEP applicants; only the chosen programme’s actual prerequisites must be matched
Saskatchewan secondary/CEGEP applicants; only the chosen programme’s actual prerequisites must be matched
Ontario high-school entry in 2027/28, exact listed route NEJ. Later major/option selection and other applicant categories remain separate.
Optional co-op; Windsor lists it as a program highlight but publishes no work-term count on the program page.
University work-study informationExact Winter 2027 undergraduate degree requirements, including named alternatives and optional routes. These courses are not all first-year requirements. The separate suspended-course bank is excluded.
Published suggested degree sequence, including listed alternatives. Unnamed choices and elective counts are specified separately.
Explore engineering practice, ethics, sustainability and technical communication.
Use sketching, descriptive geometry and CAD to create and interpret engineering drawings.
Study limits, derivatives, applications and introductory integrals in the route for students with MHF4U and MCV4U.
Apply linear systems, transformations, matrices, vectors and eigenvalues to science and engineering.
Begin calculus-based introductory physics with a focus on mechanics.
Published suggested degree sequence, including listed alternatives. Unnamed choices and elective counts are specified separately.
Study statics, trusses, frames, machines, centres of gravity and friction.
Develop an engineering design from requirements and sketches through prototypes, testing and reporting.
Explore circuits, semiconductor and optical devices, sensors, motors, amplifiers and logic gates.
Study integration, series, convergence, Taylor expansions and polar and parametric coordinates.
Study chemistry for engineering, including atomic structure, materials, equilibrium, thermochemistry and electrochemistry.
Published suggested degree sequence, including listed alternatives. Unnamed choices and elective counts are specified separately.
Study sustainability, contamination, environmental balances and engineering management, projects and supply chains.
Study multivariable and vector calculus, multiple integrals, line and surface integrals and major vector theorems.
Use MATLAB and programming concepts to analyze fundamental engineering problems.
Extend calculus-based physics to fluids, thermodynamics, electricity and magnetism for engineering.
Study stress, strain and deformation under axial, torsional and bending loads, including indeterminate problems.
Relate properties of metals, ceramics, polymers and electronic materials to their structures.
Published suggested degree sequence, including listed alternatives. Unnamed choices and elective counts are specified separately.
Develop engineering designs through requirements, sketches, prototypes, testing and teamwork.
Solve ordinary differential equations and systems using methods including Laplace transforms and scientific applications.
Use probability, statistical tests, estimation and regression in engineering design, quality and manufacturing.
Analyze particle and rigid-body motion using kinematics, forces, energy and momentum.
Use CAD, solid modeling, technical drawings and tolerancing in a design portfolio and project.
Published suggested degree sequence, including listed alternatives. Unnamed choices and elective counts are specified separately.
Compare engineering alternatives using costs, returns, depreciation, taxes and equipment-replacement analysis.
Analyze stress, strain, deflection, buckling and failure in mechanical structures.
Study thermodynamic properties, gas relations, energy laws, entropy and introductory cycles.
Analyze mechanisms, gears, cams, flywheels and balancing of rotating and reciprocating systems.
Study fluid properties, statics, motion, pipe networks, dimensional analysis and similarity.
Published suggested degree sequence, including listed alternatives. Unnamed choices and elective counts are specified separately.
Develop open-ended engineering designs through CAD, prototypes, testing, iteration and teamwork.
Study gas mixtures, combustion, power cycles, refrigeration and heat-pump cycles.
Study fluid-flow equations, boundary layers, drag, turbulence, measurement and compressible flow.
Study conduction, convection and radiation and their application to heat-exchange equipment.
Use finite-element methods and software to solve heat-transfer and structural problems.
Use finite-volume methods and CFD software to investigate fluid-flow and heat-transfer problems.
Examine automotive systems, performance, materials and fabrication, with engine and vehicle dissection.
Analyze vehicle suspension, ride, tires, stability and response using numerical simulation.
Study vehicle cabin climate, heating and cooling loads, air-conditioning and engine-cooling design.
Published suggested degree sequence, including listed alternatives. Unnamed choices and elective counts are specified separately.
Develop an interdisciplinary team design with cost and schedule planning, construction, reporting and presentation.
Study instrumentation, sensors, measurement errors and computer-based data acquisition and analysis.
Design gears, drives, clutches, brakes and shafts, supported by student-developed software.
Examine automotive systems, performance, materials and fabrication, with engine and vehicle dissection.
Analyze vehicle suspension, ride, tires, stability and response using numerical simulation.
Study vehicle cabin climate, heating and cooling loads, air-conditioning and engine-cooling design.
Published suggested degree sequence, including listed alternatives. Unnamed choices and elective counts are specified separately.
Model control systems and analyze stability, transient response, frequency response and performance.
Study material deformation, fracture, fatigue and creep and methods for failure prevention.
Develop an interdisciplinary team design with cost and schedule planning, construction, reporting and presentation.
Study selected current automotive-engineering topics; the calendar does not name a fixed topic list.
Complete approved directed studies in automotive engineering with department-approved content.
Study engine design, cycles, combustion, fuels, testing, emissions and efficient or alternative-fuel developments.
Study sustainable vehicle propulsion, clean combustion, electrification, hybridization and renewable fuels.
Study automotive materials, manufacturing processes, microstructures, properties and component design.
Published Semester 1 requirements shared by the named Mechanical Engineering options. No weekly timetable is inferred.
Explore engineering practice, ethics, sustainability and technical communication.
Use sketching, descriptive geometry and CAD to create and interpret engineering drawings.
Study limits, derivatives, applications and introductory integrals in the route for students with MHF4U and MCV4U.
Apply linear systems, transformations, matrices, vectors and eigenvalues to science and engineering.
Begin calculus-based introductory physics with a focus on mechanics.
Published Semester 2 requirements; later option-specific courses remain separately scoped.
Study statics, trusses, frames, machines, centres of gravity and friction.
Develop an engineering design from requirements and sketches through prototypes, testing and reporting.
Explore circuits, semiconductor and optical devices, sensors, motors, amplifiers and logic gates.
Study integration, series, convergence, Taylor expansions and polar and parametric coordinates.
Study chemistry for engineering, including atomic structure, materials, equilibrium, thermochemistry and electrochemistry.
Named shared academic courses in the eight published semesters of Windsor Mechanical Engineering, scoped to the held Automotive option. Complementary studies, computational-method alternatives and Automotive option menus remain in notes and unchanged banks. Semester 8 Capstone [B] is not copied from the mismatched held [A] object. Optional co-op work terms are outside this map. Choice-slot coverage is partial.
Named shared Semester 1 courses. No individual course credits are inferred.
Explore engineering practice, ethics, sustainability and technical communication.
Use sketching, descriptive geometry and CAD to create and interpret engineering drawings.
Study limits, derivatives, applications and introductory integrals in the route for students with MHF4U and MCV4U.
Apply linear systems, transformations, matrices, vectors and eigenvalues to science and engineering.
Begin calculus-based introductory physics with a focus on mechanics.
Named shared Semester 2 courses. No individual course credits are inferred.
Study statics, trusses, frames, machines, centres of gravity and friction.
Develop an engineering design from requirements and sketches through prototypes, testing and reporting.
Explore circuits, semiconductor and optical devices, sensors, motors, amplifiers and logic gates.
Study integration, series, convergence, Taylor expansions and polar and parametric coordinates.
Study chemistry for engineering, including atomic structure, materials, equilibrium, thermochemistry and electrochemistry.
Named shared Semester 3 courses.
Study sustainability, contamination, environmental balances and engineering management, projects and supply chains.
Study multivariable and vector calculus, multiple integrals, line and surface integrals and major vector theorems.
Use MATLAB and programming concepts to analyze fundamental engineering problems.
Extend calculus-based physics to fluids, thermodynamics, electricity and magnetism for engineering.
Study stress, strain and deformation under axial, torsional and bending loads, including indeterminate problems.
Relate properties of metals, ceramics, polymers and electronic materials to their structures.
Also one course from Engineering Complementary Studies List A or B. One List A and one List B course are required across Semesters 4 and 5; those choices are not allocated here.
Develop engineering designs through requirements, sketches, prototypes, testing and teamwork.
Solve ordinary differential equations and systems using methods including Laplace transforms and scientific applications.
Use probability, statistical tests, estimation and regression in engineering design, quality and manufacturing.
Analyze particle and rigid-body motion using kinematics, forces, energy and momentum.
Use CAD, solid modeling, technical drawings and tolerancing in a design portfolio and project.
Also one course from Engineering Complementary Studies List A or B. The two lists are not cumulative requirements in this term.
Compare engineering alternatives using costs, returns, depreciation, taxes and equipment-replacement analysis.
Analyze stress, strain, deflection, buckling and failure in mechanical structures.
Study thermodynamic properties, gas relations, energy laws, entropy and introductory cycles.
Analyze mechanisms, gears, cams, flywheels and balancing of rotating and reciprocating systems.
Study fluid properties, statics, motion, pipe networks, dimensional analysis and similarity.
Also MECH-4259 or MECH-4258, and one Automotive option course from MECH-3430, MECH-4463 or MECH-4467. The alternative menus remain in the bank and are not simultaneous core courses.
Develop open-ended engineering designs through CAD, prototypes, testing, iteration and teamwork.
Study gas mixtures, combustion, power cycles, refrigeration and heat-pump cycles.
Study fluid-flow equations, boundary layers, drag, turbulence, measurement and compressible flow.
Study conduction, convection and radiation and their application to heat-exchange equipment.
MECH-4200 is the published Capstone Design Project [A]. Also two Automotive option courses from MECH-3430, MECH-4463 or MECH-4467; the menu is not mapped as three simultaneous requirements.
Develop an interdisciplinary team design with cost and schedule planning, construction, reporting and presentation.
Study instrumentation, sensors, measurement errors and computer-based data acquisition and analysis.
Design gears, drives, clutches, brakes and shafts, supported by student-developed software.
Also Capstone Design Project [B] and two Automotive option courses from MECH-4440, MECH-4441, MECH-4465, MECH-4469 or MECH-4471. The held Semester 8 MECH-4200 object has the [A] title, so it is retained in the bank without copying it into this term. No course title is changed.
Model control systems and analyze stability, transient response, frequency response and performance.
Study material deformation, fracture, fatigue and creep and methods for failure prevention.
Gain supervised career-related co-op experience that applies academic concepts and develops transferable skills.
Gain further supervised career-related co-op experience applying academic concepts in practice.
Gain further supervised career-related co-op experience integrating academic theory and professional skills.
Routes explicitly named within this degree section. Entry and graduation requirements differ by option.
University-published career examples for Mechanical Engineering (Automotive), including its published routes; some require further training or registration. These are examples, not ranked graduate outcomes.
Windsor's program page names the Professional Engineer (P.Eng) designation as an outcome of the degree.
Engineering
2026–27 · Fall 2026 · One full-time term · CAD
Ontario students example · Choose your category
Calculator base tuition estimate · Conditional fees extra
Housing and meals are outside this estimate.
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