The objective of the IPG stream aligns with the RSF’s objective to reinforce the federal research investment by helping Canadian postsecondary institutions ensure their federally funded research projects are conducted in world-class facilities with the best equipment and administrative support available. By directing funds to specific investments and annual or multi-year projects initiated by institutions, the IPG will facilitate tracking and reporting, to better demonstrate the impact of these investments.
This stream stems from additional funding for the RSF announced in Budget 2018, totaling $231.3 million over five years ($28.75 million in 2018-19) and $58.8 million per year after that. An additional top up was announced in Budget 2024, totaling $73.8 million in 2024-25, $89.25 million in 2025-26, $103.9 million in 2026-27, $160.33 in 2027-28, and $208.5 million in 2028-29, with $208.5 million per year ongoing thereafter.
The IPG will provide eligible institutions with additional support for projects that focus on a set of priorities that cut across the RSF’s five existing categories of eligible expenses. The initial four IPG priority areas are:
Most post-secondary Institutions in Canada receive a share of the pool of RSF funds based on their individual Institution’s three-year average of spent Tri-Council funding. Institutions that have a three-year average of Tri-Council Funding greater than $7M are eligible to share in the pool of funds available for the IPG.
Under the current budget model, the funds are distributed among McMaster’s six Faculties: Health Sciences, Science, Social Sciences, Business, Humanities and Engineering; as well as our affiliated hospitals (Hamilton Health Sciences and St. Joseph’s Healthcare). Each Faculty uses these resources to provide for step-down expenses such as hydro, research administration etc.
Please refer to the table below to see how McMaster has utilized the IPG (based on priority areas). Note that the table below captures the ‘Proposal’ data for a fiscal year (current year and potentially 2nd most recent fiscal year) until the financial report is completed for that year.
Fiscal Year
Proposal / Actual
Total IPG Award
Proposal
Actual
Deferred maintenance upgrades including new HVAC, windows, roof, electrical of all labs, offices and support spaces.
Improve building efficiency with newer HVAC, windows
Begin construction with demo stage, removing all the HVAC and electrical in all labs and other spaces.
Begin rebuild of the spaces.
This project will modernize this research building and enable the research activities of the research labs and teams to carry on without disruption of necessary air flow, electricity and water supply.
– maintenance contract for Real Time PCR System
– installation of new compressor and condensing system for walk-in refrigerator
– computer and software upgrade for upright microscope used primarily for brightfield microscopy
– statistical software licence
– installation of electronic card access system
– salary support for Research Facilities Manager to oversee equipment upgrades and maintenance to improve efficiencies and ensure the research facilities are compliant with all applicable regulatory requirements.
This investment will drive reputation growth, partner confidence, funding competitiveness, operational efficiency, and risk mitigation, while relieving pressure on corporate communications and ensuring specialized focus on research priorities.
Examples of the mechanical upgrades and repairs to be completed, relate to:
– Lighting controls installation and associated drawings
– Elevator repairs
– HVAC recommissioning
– VFD Replacement
-Three blowers for the rat cage were procured and installed. These units provide continuous intra-cage air exchange, remove stale air, and maintain either negative or positive pressure while minimizing vibrations and noise that could cause stress to the animals.
-An autoclave was procured and installed. Skilled trades professionals were engaged to connect the unit to the building’s existing plumbing and electrical systems. Carpentry work was also completed to securely position the autoclave within the wall enclosure. Prior to commissioning, operational training was provided to laboratory personnel to ensure safe and effective use of the equipment.
-An ultra-low temperature (-80°C) freezer was procured and installed in a central location accessible to all laboratory members for the storage of research samples.
-Software licenses were renewed as follows: 40 SPSS licenses and 52 GraphPad Prism licenses
-Salary support was provided for the Research Facilities Manager position.
ACMIO for research in EPIC provides direct input into workflows, governance and user education. The role understands both the clinical and technical landscapes and can translated research needs into EPIC enabled solutions
HHS continued to leverage project funding to support the Associate Chief Medical Information Officer (ACMIO) for Research, a role filled by an HHS Clinical Scientist that serves as the critical liaison between the EPIC technical teams and the research community. The ACMIO has played a key role in integrating EPIC into HHS’s broader research and innovation strategy by translating research needs into scalable, EPIC-enabled solutions, providing governance input, and supporting researcher education and adoption of EPIC research capabilities.
Key outcomes achieved during the reporting period include:
-Successful implementation and continued expansion of the Explore Research – Permission to Contact model within EPIC, significantly enhancing HHS’s ability to identify and engage patients in research. This initiative would not have been feasible without the leadership and expertise provided through the ACMIO for Research role.
-Increased integration of EPIC functionality into research workflows, supporting more efficient and responsible use of clinical data for research purposes while strengthening institutional governance and data stewardship.
-Ongoing collaboration between research, clinical, and technical teams to optimize EPIC-enabled research processes and support investigator adoption of available research tools.
-Recognition of HHS as a leader in leveraging EPIC to support research and patient engagement, demonstrated by the invitation for the ACMIO for Research and the Executive Director of Research & Innovation to present at the EPIC conference on HHS’s innovative approach to patient engagement in research.
Continued advancement of HHS’s strategic objective of embedding research within clinical care through the effective use of digital infrastructure, strengthening the institution’s capacity to conduct high-quality, data-enabled clinical research.
-Significant study of the existing spaces was required and completed
-Schematic Design considered options for retrofit or full replacement with temporary supply air
-Full Replacement with temporary supply air was chosen
Detailed Design has been submitted for Utilities and D&C review
The design was completed and tendered. The project was awarded. A separate campus wide electrical study was completed and determined that all the new switchgear will required a fault rating of 35 kA. This change in fault rating has increased the equipment size, cost and extended the manufacturing timeline. The project awarded contractors have ordered other auxiliary equipment and is preparing to install temporary services. The design engineer is revising the equipment layout to accommodate the larger equipment and planning out the proposed path of equipment delivery through the building due to the larger equipment.
An external company prepared a design brief based on the original feasibility study. The design brief was reviewed by McMaster Facility Services and the Nuclear Reactor team. The company then prepared the preliminary design package:
-Alternative pipe routing was reviewed in a effort to reduce construction costs
-A cost estimate was prepared and reviewed by the Facility Services team
The cost estimate was three times the designated project budget. The cost savings measures were reviewed and it was determined that the project could not be completed with the current funding.
Successfully completed several critical infrastructure and deferred maintenance projects, enhancing the safety, reliability, and long-term sustainability of the CVSRI research facility.
-Repaired and upgraded key building infrastructure, including safety railings, security cameras and network cabling, lighting controls, Building Automation System (BAS), Variable Frequency Drives (VFDs), FM200 fire suppression panel, and the Data Centre chiller compressor.
-Improved the safety and security of the research environment for staff, researchers, and visitors through enhanced physical infrastructure, security monitoring, and building systems.
-Strengthened the reliability of essential mechanical and environmental systems, reducing the risk of equipment failures and minimizing potential disruptions to research activities and critical research infrastructure.
Enhanced facility operations through modernization of building control systems and preventative maintenance initiatives, supporting operational efficiency while reducing future maintenance requirements and protecting valuable research assets.
During the reporting period, CREATE made significant progress in demonstrating the feasibility of leveraging Large Language Models (LLMs) to improve clinical data interoperability, support clinical research, and advance responsible AI adoption within healthcare.
Key outcomes achieved include:
-Successfully collected and de-identified a comprehensive clinical dataset from the Juravinski Cancer Centre (JCC), establishing a secure foundation for evaluating LLM applications in healthcare while maintaining privacy and regulatory requirements.
-Demonstrated the ability of LLMs to accurately extract, interpret, and structure information from unstructured clinical documentation, providing a scalable approach to improving clinical data interoperability and supporting retrospective research.
-Completed a comprehensive model selection process and identified the most suitable LLM for clinical data translation based on performance, efficiency, and alignment with FHIR interoperability standards.
-Successfully developed and deployed an end-to-end FHIR translation service capable of transforming free-text breast cancer clinical notes into structured, PS-CA-conformant datasets. The solution validated structured outputs against national interoperability standards and demonstrated the feasibility of integrating AI-enabled data transformation into clinical workflows.
-Established a proof-of-concept that has the potential to improve care coordination by enabling standardized, interoperable clinical information to be more readily shared across healthcare organizations, supporting clinicians, researchers, and referring institutions with improved access to structured clinical data.
-Advanced institutional understanding of the governance, privacy, ethical, and technical considerations associated with implementing LLMs in healthcare environments, helping inform future responsible AI adoption.
-Initiated post-project planning to expand the approach beyond oncology, identifying opportunities to scale the technology across additional clinical domains, including cancer registry abstraction, multidisciplinary tumour boards, and clinical trial matching, positioning HHS as a leader in AI-enabled clinical research and digital health innovation.
The DRIVE initiative continued to strengthen HHS’s culture of innovation and entrepreneurship by supporting staff in translating innovative ideas into commercially viable healthcare solutions. Through mentorship, education, strategic partnerships, and targeted funding, DRIVE has continued to build institutional capacity for innovation while accelerating knowledge translation and commercialization.
-Continued growth and sustainability of the DRIVE platform, providing structured mentorship, commercialization guidance, strategic partnerships, and funding opportunities to HHS innovators through the annual SPARK program.
-Demonstrated year-over-year growth in staff engagement and participation. Applications to the SPARK program increased from 21 in Year 1, to 17 in Year 2, to 41 expressions of interest in Year 3, reflecting a substantial increase in awareness and engagement across HHS.
-Successfully supported multiple innovation teams through commercialization pathways. Four ventures funded during the inaugural SPARK competition successfully incorporated as start-up companies and continue to advance their commercialization milestones through ongoing mentorship, funding opportunities, and industry connections facilitated by DRIVE.
-Enhanced the quality and readiness of innovation projects through the introduction of the Health Innovation Bootcamp, a six-week educational program delivered in partnership with McMaster University. The program strengthened participants’ commercialization knowledge, improved investment readiness, and resulted in higher-quality business pitches and stronger responses during the evaluation process.
-Awarded funding to three high-potential ventures during Year 2 and continued to provide mentorship and commercialization support to help achieve early-stage milestones.
-Continued to establish HHS as a leader in healthcare innovation by fostering a sustainable innovation ecosystem that supports intellectual property development, industry engagement, entrepreneurship, and the translation of research discoveries into solutions with the potential to improve patient care and health system performance.
The electrode boilers have been pre-purchased by McMaster due to long manufacturing and approvals timelines. The boilers are currently being manufactured. Consultants are working on the detailed design based on the boilers that were pre-purchased. The building permit was applied for and issued by the City of Hamilton. Some pre-construction activities have been completed ahead of the equipment installation such as the steam header relocation and installation of a new steam meter
The water treatment system needs additional review and design to ensure there are no issues with chemical treatment between the electrode boilers and the gas-fired boilers operational requirements.
Two flammable cabinets were purchased for 2 separate labs
Additional rat cages and accessories for animal research were purchased to meet the new regulations that must be 100% in compliance by 2031. An existing microscope was upgraded with a new motorized platform for automated imaging application, an improved widefield epi-fluorescence light pathway , a new camera and a new computer system with current software. These upgrades have improved the functionality of the microscope vastly as we can now utilize the latest technologies. Software licenses for another year were renewed, allowing our researchers access to programs for statistical analysis and graphing of data.
To ensure compliance with acceptable noise emissions, an acoustic barrier/louvre will be installed along the perimeter of the rooftop housing these Cooling Towers. This acoustic mitigation is required to ensure compliance with applicable noise regulations during the nighttime operation of these cooling towers which provide cooling and chilled water to the research community.
The project was executed in 2 phases; therefore, 4 were replaced in time for summer of 2023 and the remaining 6 were demolished and replaced with 4 towers during the summer of 2024.
Establish and scale the HHS DRIVE program as a commercialization and entrepreneurship platform that accelerates the translation of healthcare innovations into market-ready solutions.
Demonstrated institutional capacity to identify, mentor “intrapreneurs” growing external visibility of HHS as a hub for health innovation commercialization.
Completion of cabling and junction box installation; successful generator load test using new configuration.
1) upgrading the eyewash stations to newer models and
2) providing laboratory chairs that meet Canadian Biosafety Standard and Guidelines.
Replace some of the older chairs in the laboratory with new ones that are biosafety compliant.
Lab chairs that are biosafety compliant: cleanable, non-porous and resistant to damage caused by decontamination products, were purchased, assembled and put into use.
2. Ensure all fume hoods have a functioning alarm
3. Set up 3yr service contract for PCR system
2. Total 7 external alarms installed. All fume hoods now have working alarm.
3. Service contract purchased with expiry February 23 2027.
AND
Upgrading the airflow system in the lab of the CVSRI Building to reduce annual maintenance costs
Airflow system: Reduction in deferred maintenance. Observed that maintenance costs have reduced by approximately 50%.
Airflow system: The improved airflow system for the CVSRI labs reduces the annual maintenance costs, allowing for a reduction in overall operation costs. The staff are provided with stability in the lab usage as the new system has reduced the amount of times the labs need to be closed due to the former air flow system. This helps build the reputation of faculties operating out of the CVSRI Building.
In Progress
Airflow System:
Complete
The system to be purchased will allow us to: 1. recreate all of our documents into an easily editable interface which thereby minimizes change. 2. offer a unique search function that incorporates the use of key words which would allow access to specific information quickly 3. synthesizes amendments to the original document, reducing the need to search through dozens of PDFs to make sense of how the protocol has changed over time 4. advanced colour-based tracking of edits in the review process allows for easy comparison of versions over time and ensures requested revisions are properly made before approval. 5. provides a training database within the program to identify users who have or lack training aspects required for their protocol and eliminates the need to cross-reference this information separately. 6. Reports can be easily generated and configured to what will be required by the applicable regulatory bodies and are not limited to what the company offers as a default. This complements nicely with the ability to also track animal census information within the program rather than needing to use a separate one.
Integrate the Funding Opportunities Database (FOD) with the centralized, digitized grant approval platform to streamline the internal administrative processes.
Design the FOD dashboard as the first landing page of the grant approval platform that end users will see.
The different administrative approval forms have been amalgamated into a single master form. This is currently being implemented in the new platform.
Design of the FOD dashboard is currently undergoing User Acceptance Testing
Observed result: New service contracts entered into increased to 8 vs. 1 in the prior year.
There will also other expenses to meet OMAFRA and CCAC requirements as we complete the renovations.
https://research.stjoes.ca/news-events/news/~1668-Bienvenue-St-Joe-s-Neuroscience-Researchers-Hosting-International-Symposium-including-French-Delegation