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Health Sciences Building Additions in Canada: New Facilities & Expansions

Canada’s universities are under growing pressure to train more physicians, nurses, rehabilitation specialists, dentists and other health professionals while also supporting increasingly sophisticated biomedical research. That demand is changing the physical shape of campuses. A modern health sciences addition is no longer simply another classroom wing attached to an older building. New projects increasingly combine simulation centres, teaching clinics, wet laboratories, collaborative research areas, advanced imaging, flexible classrooms and community-facing health services.

Several Canadian universities are currently expanding or reworking health-sciences infrastructure. The University of Toronto is developing major new facilities in Toronto and Scarborough, the University of Manitoba is expanding its Bannatyne health campus, and the University of Saskatchewan continues to optimize and modernize its Health Sciences Building.

These projects tell a larger story. Health education is becoming more interdisciplinary, technology-intensive and connected to real clinical environments. The buildings supporting that education have to evolve as well.

What Is a Health Sciences Addition?

A health sciences addition is a new section, wing, building or major expansion designed to increase the teaching, research or clinical capacity of an existing health-sciences campus or institution.

The term can describe many different projects.

Some additions physically connect with an existing medical or health sciences building. Others are technically separate structures but function as part of a broader health education complex. Renovation projects can also serve the same purpose when institutions reorganize existing space to accommodate new programs, laboratories or simulation facilities.

Typical health sciences expansions may include:

This is why evaluating these projects only by square footage misses the point.

A 50,000-square-foot specialized clinical and simulation addition may have more educational impact than a much larger conventional academic building.

Modern health sciences facilities are ultimately pieces of infrastructure for people, technology and collaboration. Their value depends on what students, researchers, clinicians and communities can actually do inside them.

Why Canada Needs More Health Sciences Infrastructure

Canada’s need for health education infrastructure is tied closely to the country’s demand for trained health professionals.

Universities cannot substantially increase enrolment indefinitely without adding teaching capacity. Medical education, in particular, requires spaces that ordinary lecture halls cannot provide.

Students need anatomy facilities, clinical simulation environments, laboratories, standardized-patient rooms and opportunities to practise procedures safely before entering real clinical settings.

The University of Toronto’s Scarborough Academy of Medicine and Integrated Health, for example, was created in part to expand training capacity in the eastern Greater Toronto Area. The university says the academy will bring together medicine, nursing and other health programs while working with local hospitals and health networks.

The same logic is visible elsewhere.

The University of Manitoba says its new five-storey Bannatyne campus building will provide additional classrooms, simulation laboratories and other infrastructure required for expanded medical education.

This relationship between program expansion and facility expansion is important.

Universities can announce additional student seats relatively quickly.

Creating the physical environment required to train those students safely and effectively takes years.

That is why capital planning increasingly sits at the centre of health-workforce planning.

University of Toronto Scarborough’s New Health Sciences Complex

One of Canada’s most significant current health education projects is taking shape at the University of Toronto Scarborough.

The new Myron and Berna Garron Health Sciences Complex will become the physical hub of the Scarborough Academy of Medicine and Integrated Health, commonly known as SAMIH. According to U of T, the five-storey building is expected to open in fall 2026.

The facility is being designed for much more than conventional classroom instruction.

U of T says the complex will include:

That combination illustrates where health sciences architecture is heading.

Students will not simply learn about health care in classrooms. They will practise clinical skills, interact with community-facing services and work across disciplines within the same environment.

The building will also house the Scarborough Centre for Brain Health, including what U of T describes as the first clinical and research MRI facility in the eastern GTA.

This makes the project an especially useful example of how education, research and community care are increasingly being designed into a single health sciences addition.

Why the Scarborough Project Matters Beyond U of T

The importance of the Scarborough facility is not limited to architecture.

Its location is strategic.

Health-professional education has historically been concentrated around major downtown teaching hospitals and central university campuses. Expanding substantial training capacity into Scarborough changes where students learn and potentially where future clinicians develop professional connections.

U of T’s academy is being developed through partnerships involving the Temerty Faculty of Medicine, Lawrence Bloomberg Faculty of Nursing and local health organizations.

That model can help connect university education with the communities facing health-workforce needs.

There is also an educational advantage.

Students trained entirely inside university buildings can understand clinical concepts without seeing the full complexity of community health delivery.

A campus that incorporates teaching clinics and local health-system partnerships can narrow that gap.

This is one reason future health sciences projects are likely to place increasing emphasis on external partnerships rather than functioning as isolated academic facilities.

The building itself matters.

But the network around the building may matter even more.

That is a useful distinction when assessing any new health sciences facility.

A technically impressive structure with weak connections to clinical partners may deliver less value than a smaller project deeply integrated with regional health services.

The Temerty Building at the University of Toronto

U of T is also planning a major health and biomedical sciences development on its downtown St. George campus.

The university’s new Temerty Building is planned as a nine-storey, approximately 388,000-square-foot facility on King’s College Circle, replacing the west wing of the existing Medical Sciences Building.

The project is intended to bring together researchers and academic units from the Temerty Faculty of Medicine and the Faculty of Arts & Science.

That interdisciplinary structure is significant.

Biomedical research increasingly overlaps with fields such as chemistry, data science, engineering, artificial intelligence, molecular biology and computational analysis.

Old academic buildings were often organized around departments.

Newer facilities are increasingly organized around problems.

That can change the building layout considerably.

Instead of putting one department on each floor and leaving researchers separated by administrative boundaries, modern health-sciences buildings may use shared laboratories, common equipment zones, collaboration areas and flexible research neighbourhoods.

The Temerty Building therefore represents more than a replacement for aging space.

It reflects an institutional shift toward research environments where multiple disciplines can operate side by side.

That approach is becoming central to large health sciences developments across Canada.

U of T Mississauga’s New Science Building

Health sciences infrastructure is not limited to buildings carrying “medical” or “health” in their names.

Life-sciences research facilities increasingly support work directly connected with human health.

The University of Toronto Mississauga officially opened its New Science Building in September 2024. U of T says the facility significantly expanded the campus’s life-sciences research capabilities by providing state-of-the-art wet laboratories, advanced infrastructure and a high-performance computing data centre.

This is important because modern biomedical research depends on both physical and digital infrastructure.

Traditional wet labs remain essential for experimental work involving cells, tissues, chemistry and biological systems.

At the same time, research increasingly generates enormous datasets.

Genomics, medical imaging, computational biology and other fields may require major computing power.

A contemporary health sciences addition therefore needs to consider more than lab benches.

It may also require:

The UTM project shows why “science building” and “health sciences building” increasingly overlap.

The infrastructure underlying discovery in biology and medicine is becoming more integrated.

University of Manitoba’s Bannatyne Campus Expansion

Winnipeg is another important location for current health sciences expansion.

The University of Manitoba’s Bannatyne campus is its major health-sciences campus and sits adjacent to the Health Sciences Centre. The university describes the campus as a nine-building complex focused on interdisciplinary training for future health professionals.

That campus is now gaining another major facility.

UM’s capital plan describes a new five-storey building that will provide classrooms, simulation laboratories and a theatre to support increased medical-school enrolment. The project is expected to open in 2027.

The facility will also include a new approximately 26,000-square-foot dental clinic for the Dr. Gerald Niznick College of Dentistry, space for Ongomiizwin – Indigenous Institute of Health and Healing, and a 90-space child-care centre.

That combination deserves attention.

It shows that health campuses are being designed as complete educational ecosystems rather than collections of labs.

Students and faculty need clinical training space.

They also need classrooms, support services, community connections and environments that make demanding programs sustainable.

A modern expansion therefore has to solve multiple problems simultaneously.

Simulation Labs Are Becoming Core Infrastructure

One of the clearest trends across new health sciences facilities is the rise of simulation-based education.

Simulation laboratories allow students to practise clinical scenarios before working with actual patients.

Depending on the facility, students may train with sophisticated mannequins, standardized patients, simulated hospital rooms, surgical equipment or digital technologies.

The goal is not to replace real clinical experience.

It is to make that experience safer and more valuable.

Students can practise communication, teamwork, emergency response and procedures in an environment where mistakes become learning opportunities rather than patient-safety events.

That explains why simulation facilities appear prominently in projects such as the University of Manitoba’s Bannatyne expansion and U of T Scarborough’s new complex.

Simulation also supports interdisciplinary education.

A realistic emergency scenario can involve medical students, nurses, pharmacists and other learners at the same time.

That better reflects real health-care delivery.

Hospitals do not function as isolated professional silos.

Neither should training facilities.

As universities expand health enrolment, simulation capacity is likely to become one of the most important constraints determining how many students can be trained effectively.

University of Saskatchewan Health Sciences Building

The University of Saskatchewan provides a useful example of a different approach: long-term expansion followed by continued optimization.

Its Health Sciences Building underwent a major multi-phase renovation, construction and development program that stretched over approximately 13 years before the main project concluded in 2019.

That work included significant new additions.

USask notes that the Health Sciences Building’s D- and E-Wing additions were built with sustainability considerations, with D-Wing receiving LEED Silver certification and E-Wing receiving LEED Gold.

But completion did not mean the facility stopped evolving.

The university is now undertaking further space optimization work. USask says physical changes needed to accommodate new programs are planned for completion by fall 2026, while additional optimization phases are expected to continue beyond that date.

This is an important lesson.

Health sciences buildings are rarely “finished” in the conventional sense.

Programs change.

Research technologies evolve.

Student numbers increase.

Equipment becomes obsolete.

New professions require different training environments.

Good facility planning therefore has to anticipate modification rather than assuming the original configuration will remain appropriate for decades.

Why Renovating Existing Health Sciences Buildings Is Difficult

Expanding an existing medical or science building is often considerably more complicated than constructing ordinary classroom space.

The reason is infrastructure.

Laboratories may require specialized ventilation, gases, power, plumbing and temperature control.

Clinical teaching spaces can need infection-control features and specialized equipment.

Imaging systems may require structural reinforcement, shielding and carefully controlled environments.

Some facilities also contain research that cannot simply stop for several years while construction takes place.

That makes phasing essential.

A university may renovate one wing while teaching continues elsewhere, move researchers temporarily, install new mechanical systems and then return to areas that could not previously be accessed.

USask’s long multi-phase redevelopment demonstrates how complicated these projects can become.

A health sciences expansion therefore has to solve two problems:

Build the future facility.

Keep the existing institution functioning during construction.

The second challenge is easy to underestimate.

Students still need classes.

Researchers still have experiments underway.

Clinical services may still be operating.

Planning a successful health sciences addition is therefore as much an operational exercise as an architectural one.

Interprofessional Education Is Changing Building Design

Health care depends on teams.

Doctors, nurses, pharmacists, physiotherapists, occupational therapists, psychologists, dentists and many other professionals rarely work entirely independently.

Universities are increasingly trying to reflect this reality during education.

That creates different requirements for physical space.

Historically, individual faculties might occupy separate buildings or isolated floors.

Modern facilities increasingly emphasize shared spaces.

These can include:

USask’s Health Sciences Building is a strong example of a campus designed around collaboration among multiple health disciplines, while U of T Scarborough’s emerging academy similarly brings several professional streams and community-facing services together.

This architectural change is not cosmetic.

Putting learners together increases opportunities for interaction.

Students begin understanding what other professions actually do before they encounter one another in clinical practice.

A well-designed building can therefore influence professional culture.

Walls separate disciplines.

Shared spaces can help connect them.

Teaching Clinics Are Becoming Part of the Campus

One of the most promising trends in health sciences design is the integration of real or community-facing clinical services into educational buildings.

The new U of T Scarborough facility is expected to include teaching clinics for clinical psychology, nurse practitioner services and pharmacy.

McGill offers another example on a smaller scale. Its Jim Lund Dental Clinic expansion, completed in 2024 with Welcome Hall Mission, increased the clinic from three to six chairs, effectively doubling clinical capacity.

This approach produces benefits on both sides.

Students gain exposure to real patient needs.

Communities gain access to services.

Faculty can integrate education, supervision and clinical delivery.

The model can be particularly valuable in dentistry, psychology, rehabilitation, nursing and pharmacy, where supervised practice forms a major part of professional preparation.

It also changes how universities should think about health buildings.

A health sciences facility is no longer necessarily an inward-facing academic space.

Parts of the building may need to welcome members of the public every day.

That means accessibility, privacy, wayfinding, waiting areas and clinical workflow become architectural priorities alongside classrooms and research laboratories.

Research Labs Are Becoming More Flexible

Scientific research changes quickly.

A laboratory designed around one technique today may need completely different equipment a decade from now.

Fixed layouts therefore create long-term problems.

Newer health sciences additions increasingly emphasize adaptability.

Flexible laboratory modules can be reconfigured when research teams change, equipment evolves or new collaborative projects begin.

Shared core facilities are another important trend.

Instead of every research group purchasing duplicate specialized equipment, institutions can create centrally managed spaces containing high-value instruments.

That approach can reduce duplication while bringing researchers into contact with one another.

Computational infrastructure is also becoming more important.

U of T Mississauga’s New Science Building includes high-performance computing capability alongside wet-lab infrastructure.

This combination reflects modern research reality.

A laboratory may generate biological samples in one room and analyze enormous datasets in another.

Future health sciences buildings will need to support both worlds.

The best facilities therefore are not simply larger.

They are more adaptable.

That is a crucial difference.

Sustainability in Health Sciences Additions

Health sciences buildings can be unusually resource-intensive.

Laboratory ventilation systems may move large volumes of air continuously.

Specialized equipment consumes electricity.

Temperature-controlled environments require heating and cooling.

Water demand can be significant.

That makes sustainability particularly important.

The University of Saskatchewan’s Health Sciences D- and E-Wing additions demonstrate that specialized health facilities can still pursue high-performance environmental standards. D-Wing received LEED Silver certification, while E-Wing achieved LEED Gold.

Modern projects can reduce environmental impact through measures such as:

There is also a financial argument.

A health sciences building may operate for many decades.

Small improvements in energy performance can therefore generate large cumulative savings.

Construction cost matters.

But lifetime operating cost matters too.

Universities that focus only on the upfront capital budget risk creating expensive long-term liabilities.

Accessibility and Inclusive Design

A modern health sciences facility should demonstrate the same commitment to accessibility that health professions themselves are expected to uphold.

That includes obvious physical features such as accessible entrances, elevators and washrooms.

But genuinely inclusive design goes further.

Buildings should consider people with visual, hearing, mobility, sensory and cognitive differences.

Clear navigation can reduce stress.

Good acoustics can improve communication.

Flexible furniture can support different physical needs.

Quiet areas can help people who become overwhelmed in highly stimulating environments.

Technology should be designed so that it is accessible rather than added as an afterthought.

This matters particularly in health sciences because the users are diverse.

Buildings may serve:

A facility designed only for healthy university-aged students has missed much of its actual audience.

The strongest health sciences additions treat accessibility not as regulatory compliance but as part of educational and clinical quality.

The Role of Indigenous Health and Community Connection

Canadian health education increasingly recognizes that infrastructure should reflect the communities universities serve.

The University of Manitoba’s new Bannatyne campus building is notable because it will include Ongomiizwin – Indigenous Institute of Health and Healing.

That inclusion shows how institutional priorities can influence physical design.

Space communicates importance.

When Indigenous health education, community engagement and cultural programming receive dedicated space within major health-sciences developments, they become visible components of the campus rather than peripheral initiatives.

Community connection is equally important.

U of T Scarborough’s new academy is explicitly linked with regional health organizations in the eastern GTA.

This type of partnership can influence where students complete placements, what populations they encounter and which health-system problems researchers study.

A health sciences building should therefore not be judged solely by what happens inside its walls.

Its relationships beyond the campus are equally important.

What Makes a Successful Health Sciences Addition?

The most successful expansion is not automatically the most expensive or visually dramatic.

It is the project that solves real educational and research problems.

A strong facility should increase capacity without creating unnecessary complexity.

It should support current programs while allowing future adaptation.

It should bring disciplines together where collaboration is useful while still providing specialized environments where privacy, safety or technical requirements demand them.

Key characteristics include:

Another important consideration is location.

Health sciences facilities benefit from proximity to hospitals, clinics, transit and research partners.

The University of Manitoba’s Bannatyne campus, for example, is directly adjacent to Winnipeg’s Health Sciences Centre.

That physical relationship can make clinical education and research collaboration considerably easier.

Architecture is only one part of campus planning.

Geography matters too.

How Health Sciences Buildings Could Change by the 2030s

The next generation of health sciences facilities is likely to look noticeably different from the buildings many universities inherited from the twentieth century.

Artificial intelligence will affect both research and clinical education.

Medical imaging will continue becoming more computational.

Simulation will become increasingly immersive.

Virtual and augmented reality may complement physical clinical-skills spaces.

Remote care training will require telehealth environments.

Research laboratories will need increasing amounts of data infrastructure.

At the same time, buildings will face pressure to reduce carbon emissions.

That creates tension.

Advanced health research can require energy-intensive equipment and ventilation, while universities are simultaneously trying to reduce campus energy consumption.

Designers will have to solve both problems.

Flexibility will therefore become one of the most valuable characteristics of any new health sciences addition.

Nobody can predict exactly what medical education will require in 2045.

A building constructed today should not make future adaptation unnecessarily difficult.

The best facility may be the one that can change without needing to be demolished.

Frequently Asked Questions

What is a health sciences addition?

A health sciences addition is an expansion of a university, college, research institute or health campus designed to create additional teaching, clinical or research capacity.

It may include classrooms, laboratories, simulation centres, teaching clinics, research facilities or collaborative spaces.

Which Canadian universities are expanding health sciences facilities?

Current examples include the University of Toronto’s new health sciences complex in Scarborough and planned Temerty Building in downtown Toronto, the University of Manitoba’s new Bannatyne campus facility, and continued space optimization at the University of Saskatchewan’s Health Sciences Building.

Why are simulation labs important in medical buildings?

Simulation laboratories allow learners to practise clinical procedures, communication, emergency response and teamwork in controlled environments before applying those skills with actual patients.

They are increasingly important as medical and nursing programs expand.

When will U of T Scarborough’s new health sciences building open?

The Myron and Berna Garron Health Sciences Complex is expected to open in fall 2026, according to the University of Toronto.

What will the University of Manitoba’s new health building include?

UM says the five-storey facility will include classrooms, simulation laboratories, a theatre, a new approximately 26,000-square-foot dental clinic, space for Ongomiizwin – Indigenous Institute of Health and Healing, and a 90-space child-care centre. It is currently planned to open in 2027.

Final Thoughts

The Canadian health sciences addition is evolving from a simple building expansion into a strategic tool for addressing some of the country’s biggest education, research and health-workforce challenges.

The projects underway or evolving at U of T, the University of Manitoba and the University of Saskatchewan illustrate several clear trends. Universities are adding simulation laboratories, teaching clinics, adaptable research environments, interdisciplinary spaces and sophisticated technological infrastructure.

They are also thinking differently about where learning happens.

The new U of T Scarborough complex connects education with regional health partners and community-facing clinics. The University of Manitoba is expanding directly within its major health campus. Saskatchewan’s long-running redevelopment shows how existing buildings can continue evolving through renovation and optimization rather than simply being replaced.

The bigger lesson is that increasing Canada’s health-workforce capacity requires more than adding seats to academic programs.

Those students need places to learn.

Researchers need laboratories.

Clinical learners need simulation environments.

Communities need stronger connections with universities.

And all of those functions increasingly have to coexist within flexible, efficient and sustainable facilities.

The most valuable health sciences projects will therefore not be the buildings that merely look impressive on opening day. They will be the facilities still adapting successfully to new technologies, new professions and new health challenges decades after construction is complete.

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