After more than 20 years supporting laboratory environments, we have seen firsthand how the needs of research facilities continue to evolve.

Higher education remains one of the largest markets we serve, and through our work with universities, consultants, contractors, and facility teams across Ontario and Quebec, we have gained a unique perspective on the challenges institutions face when designing, upgrading, and operating laboratory spaces.

Today, the conversation has shifted. It is no longer only about creating new research space—it is about ensuring the infrastructure supporting that research is reliable, efficient, adaptable, and built for the future.

As universities continue investing in research capacity, campus renewal, and laboratory modernization, several key themes are emerging.

1. Research Growth Requires Reliable Infrastructure

Ontario and Quebec continue to invest in research, innovation, and advanced learning environments. New research programs, specialized facilities, and collaborative laboratory spaces are helping institutions remain competitive while supporting scientific advancement.

However, research excellence depends on more than the equipment inside the laboratory.

The building systems supporting those spaces—including ventilation, airflow control, environmental monitoring, and automation—play a critical role in maintaining safe, stable, and reliable research environments.

For laboratory facilities, infrastructure performance is part of the research mission.

A properly designed and maintained laboratory environment helps protect researchers, support sensitive work, and provide the reliability needed for long-term research success.

2. Aging Infrastructure Is Driving Smarter Laboratory Upgrades

While new research facilities continue to be developed, many universities are also addressing aging buildings and deferred maintenance challenges.

Across Ontario and Quebec, institutions are investing in campus renewal projects that modernize existing facilities, improve building performance, and extend the useful life of critical infrastructure.

For laboratories, these upgrades often involve more than replacing equipment. They create opportunities to evaluate:

• Aging ventilation systems
• Outdated airflow controls
• Inefficient operating sequences
• Limited system feedback and monitoring
• Increasing energy demands

Modernizing laboratory control systems can help institutions improve performance while maximizing the value of existing infrastructure.

3. Energy Efficiency Must Be Balanced with Laboratory Safety

Laboratories are among the most energy-intensive spaces on a university campus, largely due to their ventilation requirements.

Unlike typical commercial buildings, laboratories must maintain precise airflow relationships to support containment, safety, and occupant protection. The goal is not simply to reduce airflow—it is to provide the right airflow at the right time while maintaining required operating conditions.

This balance between safety and sustainability is becoming increasingly important.

Universities are looking for solutions that improve energy performance while maintaining the reliability and responsiveness required for research environments.

Achieving this requires coordination between:

• Air quality monitoring systems
• Laboratory control systems
• Building automation systems
• High-performance airflow control devices

When these systems work together, facilities can better understand their operations, respond to changing conditions, and optimize performance over time.

4. Reliability and Responsiveness Matter Throughout the Building Lifecycle

One of the trends we continue to see in laboratory projects is that the value of a system extends far beyond the initial installation.

Laboratories operate in environments where downtime can impact research schedules, compliance requirements, and operational continuity. When issues arise, access to knowledgeable technical support and responsive service becomes essential.

This has increased the importance of working with partners who understand laboratory environments—not simply general HVAC applications.

Local expertise can provide advantages throughout the project lifecycle, including:

• Faster technical support
• Improved coordination during commissioning
• Better communication between designers, contractors, and facility teams
• Greater availability for future service and optimization

For critical laboratory systems, proximity and expertise can become important factors in long-term success.

5. Procurement Is Moving Toward Lifecycle Value

As higher education institutions continue investing in laboratory infrastructure, procurement decisions are increasingly looking beyond initial purchase price.

The lowest upfront cost does not always represent the best long-term value.

Facility teams are increasingly considering:

• Reliability and expected service life
• Energy performance
• Maintenance requirements
• System integration
• Availability of technical support
• Total lifecycle cost

For laboratory airflow systems, these considerations can significantly influence how effectively a facility performs years after construction is complete.

What We Are Seeing in the Field

Through our experience supporting laboratory environments, several common themes continue to emerge:

• Universities are balancing research growth with aging infrastructure.
• Laboratory energy performance is becoming a larger operational priority.
• Controls, monitoring, and data visibility are increasingly important.
• Facility teams are looking for partners who understand laboratory requirements.
• Long-term performance is becoming just as important as initial project cost.

Final Thoughts

The future of higher education laboratories is not simply about building more space—it is about creating smarter, more resilient environments that allow researchers to do their best work.

As universities across Ontario and Quebec continue investing in research and campus modernization, the systems supporting those environments will play an increasingly important role.

Reliable ventilation, intelligent controls, and responsive technical support are not just building features—they are essential components of successful research infrastructure.

The systems behind the science matter.

References & Further Reading

This article reflects observations from our work supporting laboratory environments across Ontario and Quebec, combined with publicly available information regarding higher education infrastructure investment, research priorities, and campus modernization initiatives.

• Government of Ontario — Postsecondary infrastructure and facilities renewal programs
• Government of Canada — Research infrastructure funding programs
• Canada Foundation for Innovation — Research infrastructure investments
• Universities Canada — Higher education sector research and infrastructure priorities