3 programs, side by side
Rows marked with a dot are where these differ. Everything is each university’s own published wording; the “your average” row is yours, calculated the way each program does it.
| Your average, their wayrequired courses forced in | |||
|---|---|---|---|
| Published rangetheir exact wording | 90%“A minimum of 90% is required for consideration. Admission is by selection.”Admission by selection — the real bar may sit above this | 90%“A minimum of 90% is required for consideration. Admission is by selection.”Admission by selection — the real bar may sit above this | 90%“A minimum of 90% is required for consideration. Admission is by selection.”Admission by selection — the real bar may sit above this |
| Required coursesforced into your top 6 — options are the row below | ENG4UMCV4USBI4USCH4USPH4U | ENG4UMCV4USBI4USCH4USPH4U | ENG4UMCV4USBI4USCH4USPH4U |
| Choose one ofany of these satisfies it | — | — | — |
| Prerequisitesas published |
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|
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| More than marks?supplementary application | Yes
| Yes
| Yes
|
| Co-op | Available | Available | Available |
| Degree | Bachelor of Engineering, BEng, Bachelor of Engineering (Co-op), BEng (Co-op) | Bachelor of Engineering, BEng, Bachelor of Health Sciences, BHSc | Bachelor of Engineering, BEng, Bachelor of Engineering (Co-op), BEng (Co-op) |
| First-year intakewhere published | — | — | — |
| What you study | Electronic & Electrical EngineeringGeneral or Integrated EngineeringMolecular Biology, Biochemistry | BiotechnologyGeneral or Integrated EngineeringHuman BiologyMolecular Biology, Biochemistry | Electronic & Electrical EngineeringGeneral or Integrated EngineeringMechanical EngineeringMolecular Biology, Biochemistry |
| What it is | You study electrical engineering with a focus on how to apply it to medical devices and biological systems, like designing pacemakers or diagnostic equipment. This program is more specialized than general electrical engineering because it weaves in molecular biology and biochemistry so you understand the living systems your devices interact with. The co-op option lets you work in medical device companies or hospitals alongside your studies. It suits people who want engineering problem-solving but are drawn to healthcare applications. | You study engineering and health sciences together, focusing on how biology and chemistry apply to medical devices, treatments, and health problems. Unlike a standard engineering program, you're embedded in health sciences from day one, and you'll do paid work terms in hospitals, biotech companies, or medical device firms. This suits people who want to solve real health challenges through technology but aren't sure yet whether they prefer the engineering or health science side. | You study the engineering and science behind medical devices and body systems — combining electrical, mechanical, and software engineering with biology and biochemistry. Unlike a pure engineering program, this integrated stream embeds health sciences throughout, so you're designing with biological function in mind from day one. The co-op requirement means you'll alternate between classroom and paid work terms at hospitals, manufacturers, or research labs. This suits students who want to build real medical technology rather than study engineering or biology alone. |
| The door tomajors you reach through it | Applied to directly | Applied to directly | Applied to directly |
| Entrance awardsat this campus, by average | 5 published, 3 with no applicationfrom 75%See them | 5 published, 3 with no applicationfrom 75%See them | 5 published, 3 with no applicationfrom 75%See them |
| Source | McMaster University on OUInfo | McMaster University on OUInfo | McMaster University on OUInfo |
Also compare with
Same subject area and a similar published range, at a campus you have not got in the table yet.
Ranges are what each university publishes, not guaranteed cutoffs, and limited-enrolment programs often admit above them. Confirm anything you are about to act on with the university; each column links to its source.