Client awarded $13.5M in federal funds toward $36M national infrastructure project

TVB Associates was pleased to have a strategic role supporting McMaster University in a national proposal for a $36M project for infrastructure for neutron beams. This project, entitled “Building a Future for Canadian Neutron Scattering. Part 2”, was supported by 16 universities across Canada. The Canada Foundation for Innovation (CFI) announced its contribution to the project, $13.5M through its 2025 Innovation Fund competition, in March 2026.

Project initiation awaits decisions for matching contributions from provincial governments.

Project Summary (as announced by CFI)

Enabling advanced materials breakthroughs with real-world impact: The Canadian Neutron and Positron Beam Laboratory (CNBL) at the McMaster Nuclear Reactor offers the only access to neutron beams in Canada. These beams reveal internal material structures that other scientific tools simply can’t detect. With CFI-funded equipment at this core facility, research teams in partnership with industry are developing technologies to safely store nuclear fuel, capture carbon dioxide, innovate battery design and explore new superconducting materials for fusion energy, quantum processors and next-generation MRI technology.

McMaster’s announcement: New funding establishes McMaster at the centre of Canadian neutron beam research 

CFI announcement: Major research infrastructure investment positions Canada to lead on global innovation

LinkedIn Data is Now Less Accessible: Implications for Measuring Impact of Research Organizations

Introduction

Canada’s ability to make evidence‑based investment decisions depends on understanding how research organizations contribute to the training of Science, Technology, and Innovation talent. Online career platforms—especially LinkedIn—have enabled organizations to track alumni progression and benchmark outcomes to assess whether training programs prepare individuals for roles that advance national interests. Insights derived from such tracking inform program, policy, and investment decisions.

Across Canada, several research organizations and governments are developing long‑term career outcome metrics. The University of Toronto’s 10,000 PhDs study—based on searches of publicly available alumni information—was an early landmark and has helped catalyze broader adoption of these practices. Building on this momentum, many research organizations, including Major Research Facilities, are exploring similar methods, and I have engaged with several of them on emerging practices and pioneering alumni studies. Drawing from many conversations, I have published a summary of common challenges encountered in alumni analysis  and strategies to overcome them.

In late 2025, LinkedIn began requiring users to log in to view full profiles, substantially reducing the amount of career information available to the public. Where complete profiles were once visible without logging in, only partial “teaser” content is now accessible. This limits the identifiability of individuals and complicates the ethical extraction of reliable career insights.

This article outlines the role LinkedIn data has played in alumni analysis, the alternative strategies available to organizations that previously relied on profile scraping, and the relevant legal and ethical considerations. These approaches demand more deliberate planning and manual effort but can still yield meaningful measures of impact for research and talent development programs.

Role of LinkedIn profile data

LinkedIn has emerged as the leading platform for career data, offering unparalleled access to information about professionals’ employment histories, skills, and educational backgrounds. Its widespread adoption among Canadian graduates, post-docs and researchers provides organizations with a robust resource for tracking alumni outcomes across industries and geographies. In my experience, 40%-55% of Canadian HQP alumni from research organizations have LinkedIn profiles, and is the single-largest source of such information. Leveraging this data enables institutions to gain valuable insights into career pathways, supporting evidence-based decision-making in talent development and program evaluation.

Legal status of public data from LinkedIn and similar platforms

Before LinkedIn implemented its change in late 2025, the platform allowed unrestricted public access to full profile information. Anyone, including search engines, could view comprehensive details from LinkedIn profiles without logging in. To limit potential misuse of personal information and maintain some control over profile data, LinkedIn attempted to cap the number of profiles one could view before requiring users to log in. Once users logged in, they became subject to the LinkedIn User Agreement, which imposes restrictions on data-scraping activities.

Ethical data-scraping companies limit their activities to collecting only publicly available information that can be accessed without logging in or accepting a platform’s Terms of Service or User Agreement. Major platforms have attempted to prevent these companies from using such public data. This approach reflects a desire by platforms to benefit from publishing information—making it discoverable by search engines—while simultaneously exercising private control over its use. That’s like trying to have your cake and eat it too, as the expression goes.

Nonetheless, courts have affirmed that if information is published and made publicly accessible, it is considered part of the public domain. For instance, Brightdata won a legal battle with Meta over this issue. In Brightdata’s words concerning its victory:

“[The] fundamental principle [is] that public data must remain free and accessible. This legal victory only strengthens our fundamental belief in the necessity and legitimacy of web scraping in an era where data is pivotal.”

It is important to recognize that LinkedIn profiles, though publicly accessible, still constitute personal information and are therefore subject to fundamental legal requirements regarding their use. These requirements include ensuring individuals are accurately represented, avoiding the disclosure or republication of identifiable information, and maintaining robust safeguards to protect the data.

Implications of the change for data-scraping

From a legal perspective, information displayed on the LinkedIn teaser page remains public and can still be ethically scraped. But with less data available, research organizations face greater challenges in deriving meaningful insights. Furthermore, the task of identifying alumni using automated approaches becomes more difficult, as key details—such as educational and employment histories required for confirmation—may no longer appear on the public portion of profiles.

Alternative strategies for using LinkedIn profiles

Research organizations can still log in and view LinkedIn profiles. However, the LinkedIn User Agreement imposes restrictions on copying substantial amounts of profile information, even for statistical analysis. Systematic creation of structured profile data—even if done manually—would be considered a violation of the User Agreement. Therefore, even if you individually look up alumni, methodically extracting and recording their information could still breach LinkedIn’s terms.

What you can do, is create your own dataset. You can convert LinkedIn observations into coded analytic variables rather than copying profile content verbatim. This approach greatly enhances your defensibility. For example, instead of directly recording details like “Postdoctoral Fellow at X University (2015–2018),” you would extract only the relevant variables needed for your statistical analysis and represent them in a coded format, such as:

Sector: Academia
Career stage: Postdoc
Years since first use of my organization’s facilities: 3

You can also further buildout your dataset by drawing on other public sources and cross-reference LinkedIn for verification.

The key here is that LinkedIn profiles are only viewed, not stored.

The University of Toronto published similar methods in its 10,000 PhDs study: Reithmeier R, O’Leary L, Zhu X, Dales C, Abdulkarim A, Aquil A, et al. (2019) The 10,000 PhDs project at the University of Toronto: Using employment outcome data to inform graduate education. PLoS ONE 14(1): e0209898. https://doi.org/10.1371/journal.pone.0209898

In this study, project staff searched for and reviewed publicly available online information about alumni, drawing from a variety of websites. Based on these observations, they completed a standardized set of survey questions for each alumnus covering topics such as employment sector and further education. Typically, the survey categorizes their observations into predefined groups—such as 12 possible pathways for further education after a PhD, which included options like postdoctoral fellowships, medical school, law school, or business school.

Conclusion

In summary, while the process of leveraging LinkedIn profile information now requires more deliberate planning and manual effort, research organizations can still derive significant value from the wealth of information that LinkedIn offers. With thoughtful preparation and a focus on ethical data practices, LinkedIn remains a valuable resource for research and alumni tracking, especially when integrated with other public sources. The extra effort invested in handling the LinkedIn data will continue to pay dividends in public trust.

Strengthening Canada’s Talent Pipeline: Measuring Impact of Research Organizations

Summary

A robust system for attracting, training, and retaining highly qualified personnel is essential for Canada to navigate changing priorities arising from US-Canada relations, defense concerns, AI, climate change, and the demand for critical minerals. Canadian universities are vital to attracting and training talent. Other research organizations such as Mitacs, the Canadian Light Source, and Genome Canada play crucial roles in this ecosystem by offering internships, scholarships, and specialized infrastructure to nurture talent.

It is essential to systematically measure the outcomes of talent development initiatives to ensure they support Canada’s ability to respond to these shifting priorities. Research organizations can now take full advantage of online career data to track where alumni are working, how their careers progress, and whether training programs are effectively preparing individuals for roles that advance national interests. Additionally, comparing the outcomes of program participants to control groups—individuals who did not participate in the same initiatives—provides a clearer picture of the program’s true impact. This evidence-based approach empowers research organizations and policy makers to make informed decisions that strengthen Canada’s capacity to tackle evolving national challenges.

This article summarizes several common organizational, contextual and technical issues and how to address them, using real examples from research organizations that are exploring or have implemented studies of their alumni’s career data.


Introduction

Canadian universities and other research organizations are vital to attracting and training talent. Panelists at the 2025 CSPC conference frequently recognized Canada’s excellence in training talent through this ecosystem of research organizations, and yet called on us all to do better, rising to challenges such as US-Canada relations, defence, AI, climate, and demand for critical minerals. This need was recently underscored by the CCA Expert Panel on the State of Science, Technology, and Innovation in Canada, whose report argued, “STI talent is key to enabling Canada to navigate these changing pressures and demands.”

Many panelists discussed ideas for improving the attraction and training of talent, suggesting models such as work-integrated learning or business-skills programs for science graduate students. Regardless of the proposed solution, they agreed that we need data and metrics to identify what programs are having the most impact. Often the data and metrics to enable evidence-based decisions regarding talent development through research are lacking.

Many research organizations contribute to talent development

Canadian universities represent a major force in talent development, conferring around 8,000 doctoral and 70,000 master’s degrees annually. A wide range of other research organizations provide valuable, complementary contributions: for example, Mitacs has facilitated over 100,000 internships. National research facilities such as TRIUMF, the Canadian Light Source, and Ocean Networks Canada collectively enhance the education of thousands of students and post-doctoral researchers who access their unique infrastructure. Not-for-profit health and life sciences organizations—including Genome Canada, the Stem Cell Network, the Centre for Aging + Brain Health Innovation, Brain Canada, and BioCanRx—significantly benefit students and emerging researchers through tailored talent development programs and awards that open up research opportunities for highly qualified personnel (HQP). Additionally, the federal tri-councils (NSERC, CIHR, SSHRC) collectively distribute nearly 5,000 scholarships and fellowships each year, with provincial agencies awarding a comparable number across Canada.

While research organizations throughout Canada excel at demonstrating the impact of their knowledge outputs, there is a pressing need to better highlight the contributions made through the development of HQP. Without robust evidence of the influence these organizations have, it becomes challenging for Canada to properly recognize organizations driving meaningful change and to motivate others to enhance their efforts in talent development.

The career data needed to show impact from talent development is publicly available

Research organizations, more than any other, should know that if a phenomenon is real, there is likely a way to measure it. After all, that’s what research is all about.

The good news is, yes, you can measure impact from talent development due to the recent surge in publicly accessible online career data. This wealth of information provides ample opportunity to demonstrate the influence you have had on your alumni, that is the students, post-docs and early career researchers who have benefited from your organization.

Thanks to the availability of publicly accessible career data, you can now objectively measure and report on several key outcomes, including:

  • Retention rates within your research field, targeted industry sector, high-tech sectors, as well as within your province and across Canada
  • Pace of career advancement, reflecting leadership roles and increased earning potential
  • Length of employment with organizations, signalling a strong match between acquired skills and job requirements
  • Engagement in further academic pursuits or advanced degrees
  • Variations in career trajectories and outcomes based on gender or other demographic characteristics

And most importantly, you can benchmark your findings against a control group to enable meaningful interpretation of the results.

Issues and Challenges

1) Issue: You are not a degree-granting institution. Response: You are most likely enriching the university-based education and training of highly qualified personnel by providing specialized experiences, resources, and support that complement formal academic programs.

Research organizations often provide access to unique opportunities that enhance students and post-docs education. Examples include hands-on experiments at national research infrastructures, access to unique and powerful datasets, use of virtual infrastructure such leading-edge industrial software for micro-chip design, specialized training initiatives, travel funds to valuable conferences and other opportunities, or scholarships, internships, or distinctive networking experiences.

Real-world example: An HR manager at a major research facility claimed they provided no special training opportunities to mention to the funder, yet our alumni study found the facility greatly influenced students’ education and career paths. Visiting the unique research site to conduct experiments motivated many to pursue research careers, leading to increased funding based on these findings.

Real-world example: An officer of a granting body reported that they are not directly involved in training students. Yet they award thousands of scholarships that enable students to focus on their research without the distraction of a side job to put food on the table. The impacts of those scholarships are measurable and should be credited to the granting body.

2) Issue: As a newly established organization, you may not have many alumni yet. Response: You can highlight achievements from predecessor organizations or from your research field.

New organizations have limited track records. Yet new organizations are often created from a restructuring or federation of previous organizations. In such cases, the history of HQP training from precursor organizations is still relevant. Even without a precursor organization, studying alumni from a specific research field (e.g., astronomy) remains valuable.

Real-world example: A study of alumni who worked with neutron beams at the former Canadian Neutron Beam Centre showed that this experience influenced their pursuit of advanced academic degrees and led to jobs in high-tech industries where science and technology skills are in demand. The results have supported successful grant proposals for new projects in the same area, helping to highlight the benefits Canada can expect from investing in neutron beam research infrastructure.

Real-world example: To demonstrate the impact of astronomy and supporting investment in large infrastructure, astronomers review PhD and Master’s alumni from Canadian astronomy research programs and report their findings.

3) Issue: The organization doesn’t prioritize long-term impact measurement in training. Response: This is a legacy issue. Those who engage will benefit, those who don’t may miss out.

Due to limited data, research organizations and funders have traditionally relied on short- and medium-term metrics like course satisfaction, number of trainees, or job placement rates. With the rise of accessible long-term career data, more organizations are adopting improved impact measurements, which funding bodies will increasingly expect.

Real-world example: The University of Toronto’s 2022 Career Outcomes Study identified over 90% of 16,000 PhD graduates using public sources, helping the program better align with typical graduate career paths beyond research professorships.

Real-world example: In our experience, research organizations often worry that alumni analysis may be unproductive, but after a successful first project, they plan regular updates.

4) Issue: Your organization is short-staffed and budgets are tight. Response: It’s important to see the value and understand that it doesn’t have to cost a lot.

Tracking alumni career data is often seen as yet another extra duty for you or your staff and is done ‘off the side of a desk.” If you’re connected to a university, you may have reached out to the alumni office for assistance, only to find their reasons for collecting alumni data differ from yours. The information they provide doesn’t help you assess impact, and they lack the resources to take on a special project for your needs.

To control expenses, consider starting with a small pilot project using a subset of your alumni to assess its value before committing significant resources to a larger study. This approach is effective whether you manage the project internally or outsource it.

Real-world example: A physics research organization conducts alumni analysis internally by hiring interns for online data collection and basic analysis.

Real-world example: A major research facility uses administrative and communications staff to survey alumni, gather online data, and analyze findings. While the process is labor-intensive, staff are relieved that this process will only occur periodically in line with their multi-year funding cycle.

Real-world example: Some research organizations outsource data collection and analysis. Some complain that tech firms charge prohibitive amounts for simple data-scraping services. Others report a good return on investment with meaningful insights delivered in a full report—insights that are useful for government relations and reporting to funders.

5) Issue: Your organization doesn’t have good alumni records. Response: You can often create a list of a sample of your alumni using public records.

Many research organizations have no record of many of the beneficiaries of their programs. They maintain records of some alumni such as former staff (i.e., interns, coop students, and summer students), but not others, such as students who used their research services or students whose stipends were supported by their research grants.

Research organizations often keep publication lists that, when cross-referenced with sources like university websites, LinkedIn, and thesis databases, help identify which authors were students or postdocs. This process yields a sample of alumni who participated in research relying on the organization’s infrastructure or services.

If a publication list is unavailable, one can be compiled by automated searches of scientific publication databases for mentions of the organization or its specific infrastructure, equipment, datasets, experiments, or methods. Manual curation of the automated findings will enhance the result.

Real-world example: A researcher wants to examine the career outcomes of women versus men graduates from Canadian universities in STEM fields using LinkedIn’s extensive database. Since most users display their academic credentials and institutions on their profiles, gathering alumni data from individual universities isn’t necessary.

Real-world example: A researcher wanted to examine the career outcomes of HQP trained in her specific field. A pilot analysis successfully utilised key words in that field to identify Master’s and PhD graduates via online sources.

Real-world example: A research organization lacked a publication list because it was a merger of multiple centres, each with their own practices. Spurred by the need to perform an alumni analysis, staff searched for the past publications online and curated the list. New publications are now being logged to keep it up to date. It is taking the next step to recreate an alumni list from the publication data.

5) Issue: You have questions about data privacy. Response: Public data is public. Personal data requires protection. Alumni studies are benign and generally low risk.

Data-scraping should be conducted ethically. Choose companies that access only public data. Publicly available data, like LinkedIn profiles, is accessible to anyone. Platforms cannot control use of information once they publish it, and the public has a right to use any public data. However, the platform may still have social and legal obligations to inhibit misuse of personal information, which is one reason they try to limit data collection volumes.

Generally, linking alumni lists with public data for aggregate research on career outcomes doesn’t require individual consent or violate privacy laws. Privacy regulations often permit personal data to be used for statistical research or program evaluation without explicit permission. However, when feasible, it’s still considered good practice to ask for consent directly.

Real-world example: A privacy officer at a major research facility reviewed an alumni study plan and found that most personal data used was already published through university graduate lists and LinkedIn profiles. Data subjects would only be included in the study if they published their career profile on LinkedIn. Results would be reported in aggregate. The proposed use of personal data met legal requirements for reasonableness. The privacy officer approved the plans noting low risk of sensitive information release and high potential value.

Real-world example: A granting agency has begun automating collection of personal data through web interfaces required to access services. The consent collected through these interfaces includes consent for following their careers through public data on online platforms such as LinkedIn.

6) Issue: You are unsure how to best use career data after you have collected it. Response: The critical steps involve systematically mapping and benchmarking the data, followed by establishing causal links.

Self-reported data often lacks consistency and is difficult to aggregate for analysis. For meaningful interpretation, alumni data should be compared to other groups, but few research organizations attempt this, assuming it’s too complex and not worth the effort. So not much thought or work is invested to devise a benchmarking strategy.

Real-world example: A research organization’s training manager emphasized benchmarking: “It’s easy to get data, but if you have nothing to compare it to, it’s hard to interpret. We did a bibliometric study that was a waste of time because it wasn’t benchmarked. Having a control group for our alumni studies would be very valuable, though we hadn’t considered it possible.”

Real-world example: A major research facility discovered that mapping alumni job titles to corporate hierarchies, and comparing them with peers from the same research field, showed its alumni were twice as likely to hold executive or management roles.

Real-world example: A major research facility conducted a benchmarked study revealing positive correlations between utilization of their facility and career outcomes, including pursuit of advanced degrees, career advancement, and retention within Canada. To enhance understanding of these findings, a representative sample of alumni participated in interviews. The interviewees identified factors stemming from their experiences at the facility that influenced their career decisions and accomplishments. Several commonalities emerged among participants, supporting the validity of the causal interpretation.

Conclusion

Most Canadian research organizations, whether or not they grant degrees, play a valuable role in training highly qualified people. But few assess their long-term impact on alumni careers sufficiently to inform funding and policy decisions. Despite some obstacles, organisations can use public data like LinkedIn profiles to measure impact. Properly analysing and comparing this information helps produce useful insights for reporting, evaluating programmes, and strategic planning.

Acknowledgement

This article reflects the original thought and voice of the author. AI tools were used to support the writing process.

Launch of user program with new powder diffraction capability

TVB Associates is pleased to have supported have supported the Canadian Neutron Beam Laboratory (CNBL) at McMaster University in scientific instrument design services leading up to the opening of the neutron powder diffraction capability with a formal user proposal system.

The CNBL is currently accepting proposals for experiments on the McMaster All-Purpose Diffractometer (MAD). To perform neutron diffraction, this instrument was upgraded with an 80-degree area detector recovered from the former Canadian Neutron Beam Centre. TVB assisted with the integration of the detector into the hardware and instrument control system of MAD.

Some of the first results from user experiments from this instrument were featured at the 2025 Annual General Meeting of the Canadian Institute for Neutron Scattering (CINS), held on November 14 and 15 at the Université de Montréal.

Users may apply via the CNBL website: https://nuclear.mcmaster.ca/neutron-beams/

Impacts of neutron beams

TVB Associates Inc is pleased to have supported Neutrons Canada in showcasing the real and potental impacts from neutron beams. Its website shows how socio-economic returns to Canada have been more than triple the investment the nation has invested, and these returns are to areas of national priorities, such as independence and reliability of our energy systems and lowering greenhouse gas emissions.

Client site: https://neutrons.ca/#impacts

Canadian Synchrotron Community Long-Range Plan

Over the past year, TVB Associates has been pleased to support the Canadian synchrotron community in the development of a Long-Range Plan (LRP). This continuing multi-year consultative project is driven by the Canadian Institute for Synchrotron Radiation and the Canadian Light Source (CLS).

The LRP was formally launched at the CLS Annual Users’ Meeting at the University of Waterloo in October 2024. A series of three virtual consultation sessions were held in May and June 2025. Users across industry and universities participated in answering a set of consultative questions, and a formal survey was launched.

TVB Associates has been centrally involved in planning and organizing this LRP project.

Client website: https://www.cisr-icrs.ca/lrp

Scientific support for the Canadian Neutron Beam Laboratory

TVB Associates is pleased to support the Canadian Neutron Beam Laboratory under a new multi-year contract for scientific and technical instrument design services as well as strategic advisory services for management and governance.

Through this work, TVB continues to support the McMaster-led national project entitled, Building a Future for Canadian Neutron Scattering, awarded through the 2020 CFI Innovation Fund Award “Building a Future for Canadian Neutron Scattering.”

Launch of the Canadian Neutron Beam Laboratory

TVB Associates Inc is pleased to have supported McMaster University in scientific instrument design services leading up to the launch of the Canadian Neutron Beam Laboratory at the McMaster Nuclear Reactor.

This facility will serve many researchers across Canada by providing uique and powerful research and educational opportunities.

Client article: https://news.mcmaster.ca/mcmaster-celebrates-launch-of-new-canadian-neutron-beam-laboratory/

Canadian Neutron Long-Range Plan for 2025 to 2035

TVB Associates is pleased to have supported the Canadian neutron beam community and Neutrons Canada in the strategy, planning, writing and production of the Canadian Neutron Long-Range Plan for 2025 to 2035.

The Plan outlines the path to maximize impacts in clean energy and the environment, safety and security, health and food security, and quantum innovation, through research using neutron beams.

Client article: https://neutrons.ca/news-item/release-of-the-canadian-neutron-long-range-plan-for-2025-to-2035/