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The 2024 Canadian federal budget: some thoughts on science & technology, military, and cybersecurity spending

The 2024 Canadian federal budget – Fairness for Every Generation (or if you want to see the front page, Budget 2024 – Fairness for Every Generation and then go to Go View the Budget for the table of contents) was announced in April 2024. So, I’m very late with this posting.

There weren’t too many highlights in the 2024 budget as far as I was concerned. Overall, it was a bread and butter budget concerned with housing, jobs, business, and prices along with the government’s perennial focus on climate change and the future for young people and Indigenous peoples. There was nothing particularly special about the funds allocated for research and, as for defence spending in the 2024 budget, that was and is nominally interesting.

“Boosting Research, Innovation, and Productivity” was found in Chapter Four: Economic Growth for Every Generation.

4.1 Boosting Research, Innovation, and Productivity

For anyone who’s not familiar with ‘innovation’ as a buzzword, it’s code for ‘business’. From 4.1 of the budget,

Key Ongoing Actions

  • Supporting scientific discovery, developing Canadian research talent, and attracting top researchers from around the planet to make Canada their home base for their important work with more than $16 billion committed since 2016.
  • Supporting critical emerging sectors, through initiatives like the Pan-Canadian Artificial Intelligence Strategy, [emphases mine] the National Quantum Strategy, the Pan-Canadian Genomics Strategy, and the Biomanufacturing and Life Sciences Strategy.
  • Nearly $2 billion to fuel Canada’s Global Innovation Clusters to grow these innovation ecosystems, promote commercialization, support intellectual property creation and retention, and scale Canadian businesses.
  • Investing $3.5 billion in the Sustainable Canadian Agricultural Partnership to strengthen the innovation, competitiveness, and resiliency of the agriculture and agri-food sector.
  • Flowing up to $333 million over the next decade to support dairy sector investments in research, product and market development, and processing capacity for solids non-fat, thus increasing its competitiveness and productivity.

The only ’emerging’ sector singled out for new funding was the Pan-Canadian Artificial Intelligence Strategy and that is almost all ‘innovation’, from 4.1 of the budget,

Strengthening Canada’s AI Advantage

Canada’s artificial intelligence (AI) ecosystem is among the best in the world. Since 2017, the government has invested over $2 billion towards AI in Canada. Fuelled by those investments, Canada is globally recognized for strong AI talent, research, and its AI sector.

Today, Canada’s AI sector is ranked first in the world for growth of women in AI, and first in the G7 for year-over-year growth of AI talent. Every year since 2019, Canada has published the most AI-related papers, per capita, in the G7. Our AI firms are filing patents at three times the average rate in the G7, and they are attracting nearly a third of all venture capital in Canada. In 2022-23, there were over 140,000 actively engaged AI professionals in Canada, an increase of 29 per cent compared to the previous year. These are just a few of Canada’s competitive advantages in AI and we are aiming even higher.

To secure Canada’s AI advantage, the government has already:

  • Established the first national AI strategy in the world through the Pan-Canadian Artificial Intelligence Strategy;
  • Supported access to advanced computing capacity, including through the recent signing of a letter of intent with NVIDIA and a Memorandum of Understanding with the U.K. government; and,
  • Scaled-up Canadian AI firms through the Strategic Innovation Fund and Global Innovation Clusters program.
Figure 4.1: Building on  Canada's AI Advantage
Figure 4.1
Building on Canada’s AI Advantage

AI is a transformative economic opportunity for Canada and the government is committed to doing more to support our world-class research community, launch Canadian AI businesses, and help them scale-up to meet the demands of the global economy. The processing capacity required by AI is accelerating a global push for the latest technology, for the latest computing infrastructure.

Currently, most compute capacity is located in other countries. Challenges accessing compute power slows down AI research and innovation, and also exposes Canadian firms to a reliance on privately-owned computing, outside of Canada. This comes with dependencies and security risks. And, it is a barrier holding back our AI firms and researchers.

We need to break those barriers to stay competitive in the global AI race and ensure workers benefit from the higher wages of AI transformations; we must secure Canada’s AI advantage. We also need to ensure workers who fear their jobs may be negatively impacted by AI have the tools and skills training needed in a changing economy.

To secure Canada’s AI advantage Budget 2024 announces a monumental increase in targeted AI support of $2.4 billion, including:

  • $2 billion over five years, starting in 2024-25, to launch a new AI Compute Access Fund and Canadian AI Sovereign Compute Strategy, to help Canadian researchers, start-ups, and scale-up businesses access the computational power they need to compete and help catalyze the development of Canadian-owned and located AI infrastructure. 
  • $200 million over five years, starting in 2024-25, to boost AI start-ups to bring new technologies to market, and accelerate AI adoption in critical sectors, such as agriculture, clean technology, health care, and manufacturing. This support will be delivered through Canada’s Regional Development Agencies.
  • $100 million over five years, starting in 2024-25, for the National Research Council’s AI Assist Program to help Canadian small- and medium-sized businesses and innovators build and deploy new AI solutions, potentially in coordination with major firms, to increase productivity across the country.
  • $50 million over four years, starting in 2025-26, to support workers who may be impacted by AI, such as creative industries. This support will be delivered through the Sectoral Workforce Solutions Program, which will provide new skills training for workers in potentially disrupted sectors and communities.

The government will engage with industry partners and research institutes to swiftly implement AI investment initiatives, fostering collaboration and innovation across sectors for accelerated technological advancement.

Before moving to the part of budget that focuses on safe and responsible use of AI, I’ve got some information about the legislative situation and an omnibus bill C-27 which covers AI, from my October 10, 2024 posting,

The omnibus bill, C-27, which includes Artificial Intelligence and Data Act (AIDA) had passed its second reading in the House of Commons at the time of the posting. Since May 2023, the bill has been the subject of the House of Commons Standing Committee on Industry and Technology according to the Parliament of Canada’s LEGISinfo’s C-27 , 44th Parliament, 1st session Monday, November 22, 2021, to present: An Act to enact the Consumer Privacy Protection Act, the Personal Information and Data Protection Tribunal Act and the Artificial Intelligence and Data Act and to make consequential and related amendments to other Acts webpage.

You can find more up-to-date information about the status of the Committee’s Bill-27 meetings on this webpage where it appears that September 26, 2024 was the committee’s most recent meeting. If you click on the highlighted meeting dates, you will be given the option of watching a webcast of the meeting. The webpage will also give you access to a list of witnesses, the briefs and the briefs themselves.

November 2024 update: The committee’s most recent meeting is still listed as September 26, 2024.

From 4.1 of the budget,

Safe and Responsible Use of AI

AI has tremendous economic potential, but as with all technology, it presents important considerations to ensure its safe development and implementation. Canada is a global leader in responsible AI and is supporting an AI ecosystem that promotes responsible use of technology. From development through to implementation and beyond, the government is taking action to protect Canadians from the potentially harmful impacts of AI.

The government is committed to guiding AI innovation in a positive direction, and to encouraging the responsible adoption of AI technologies by Canadians and Canadian businesses. To bolster efforts to ensure the responsible use of AI:

  • Budget 2024 proposes to provide $50 million over five years, starting in 2024-25, to create an AI Safety Institute of Canada to ensure the safe development and deployment of AI. The AI Safety Institute will help Canada better understand and protect against the risks of advanced and generative AI systems. The government will engage with stakeholders and international partners with competitive AI policies to inform the final design and stand-up of the AI Safety Institute.
  • Budget 2024 also proposes to provide $5.1 million in 2025-26 to equip the AI and Data Commissioner Office with the necessary resources to begin enforcing the proposed Artificial Intelligence and Data Act.
  • Budget 2024 proposes $3.5 million over two years, starting in 2024-25, to advance Canada’s leadership role with the Global Partnership on Artificial Intelligence, securing Canada’s leadership on the global stage when it comes to advancing the responsible development, governance, and use of AI technologies internationally.

Using AI to Keep Canadians Safe

AI has shown incredible potential to toughen up security systems, including screening protocols for air cargo. Since 2012, Transport Canada has been testing innovative approaches to ensure that air cargo coming into Canada is safe, protecting against terrorist attacks. This included launching a pilot project to screen 10 to 15 per cent of air cargo bound for Canada and developing an artificial intelligence system for air cargo screening.

  • Budget 2024 proposes to provide $6.7 million over five years, starting in 2024-25, to Transport Canada to establish the Pre-Load Air Cargo Targeting Program to screen 100 per cent of air cargo bound for Canada. This program, powered by cutting-edge artificial intelligence, will increase security and efficiency, and align Canada’s air security regime with those of its international partners.

There was a small section which updates some information about intellectual property retention (patent box retention) but otherwise is concerned with industrial R&B (a perennial Canadian weakness), from 4.1 of the budget,

Boosting R&D and Intellectual Property Retention

Research and development (R&D) is a key driver of productivity and growth. Made-in-Canada innovations meaningfully increase our gross domestic product (GDP) per capita, create good-paying jobs, and secure Canada’s position as a world-leading advanced economy.

To modernize and improve the Scientific Research and Experimental Development (SR&ED) tax incentives, the federal government launched consultations on January 31, 2024, to explore cost-neutral ways to enhance the program to better support innovative businesses and drive economic growth. In these consultations, which closed on April 15, 2024, the government asked Canadian researchers and innovators for ways to better deliver SR&ED support to small- and medium-sized Canadian businesses and enable the next generation of innovators to scale-up, create jobs, and grow the economy.

  • Budget 2024 announces the government is launching a second phase of consultations on more specific policy parameters, to hear further views from businesses and industry on specific and technical reforms. This includes exploring how Canadian public companies could be made eligible for the enhanced credit. Further details on the consultation process will be released shortly on the Department of Finance Canada website.
  • Budget 2024 proposes to provide $600 million over four years, starting in 2025-26, with $150 million per year ongoing for future enhancements to the SR&ED program. The second phase of consultations will inform how this funding could be targeted to boost research and innovation.

On January 31, 2024, the government also launched consultations on creating a patent box regime to encourage the development and retention of intellectual property in Canada. The patent box consultation closed on April 15, 2024. Submissions received through this process, which are still under review, will help inform future government decisions with respect to a patent box regime.

Nice to get an update on what’s happening with the patent box regime.

The Tri-Council consisting of the Canadian Institutes of Health Research (CIHR), the Natural Sciences and Engineering Research Council of Canada (NSERC), and the Social Sciences and Humanities Research Council of Canada (SSHRC) don’t often get mentioned in the federal budget but they did this year, from 4.1 of the budget,

Enhancing Research Support

Since 2016, the federal government has committed more than $16 billion in research, including funding for the federal granting councils—the Natural Sciences and Engineering Research Council (NSERC), the Canadian Institutes of Health Research (CIHR), and the Social Sciences and Humanities Research Council (SSHRC).

This research support enables groundbreaking discoveries in areas such as climate change, health emergencies, artificial intelligence, and psychological health. This plays a critical role in solving the world’s greatest challenges, those that will have impacts for generations.

Canada’s granting councils already do excellent work within their areas of expertise, but more needs to be done to maximize their effect. The improvements we are making today, following extensive consultations including with the Advisory Panel on the Federal Research Support System, will strengthen and modernize Canada’s federal research support.

  • To increase core research grant funding and support Canadian researchers, Budget 2024 proposes to provide $1.8 billion over five years, starting in 2024-25, with $748.3 million per year ongoing to SSHRC, NSERC, and CIHR.
  • To provide better coordination across the federally funded research ecosystem, Budget 2024 announces the government will create a new capstone research funding organization. The granting councils will continue to exist within this new organization, and continue supporting excellence in investigator-driven research, including linkages with the Health portfolio. This new organization and structure will also help to advance internationally collaborative, multi-disciplinary, and mission-driven research. The government is delivering on the Advisory Panel’s observation that more coordination is needed to maximize the impact of federal research support across Canada’s research ecosystem.
  • To help guide research priorities moving forward, Budget 2024 also announces the government will create an advisory Council on Science and Innovation. This Council will be made up of leaders from the academic, industry, and not-for-profit sectors, and be responsible for a national science and innovation strategy to guide priority setting and increase the impact of these significant federal investments.
  • Budget 2024 also proposes to provide a further $26.9 million over five years, starting in 2024-25, with $26.6 million in remaining amortization and $6.6 million ongoing, to the granting councils to establish an improved and harmonized grant management system.

The government will also work with other key players in the research funding system—the provinces, territories, and Canadian industry—to ensure stronger alignment, and greater co-funding to address important challenges, notably Canada’s relatively low level of business R&D investment.

More details on these important modernization efforts will be announced in the 2024 Fall Economic Statement.

World-Leading Research Infrastructure

Modern, high-quality research facilities and infrastructure are essential for breakthroughs in Canadian research and science. These laboratories and research centres are where medical and other scientific breakthroughs are born, helping to solve real-world problems and create the economic opportunities of the future. World-leading research facilities will attract and train the next generation of scientific talent. That’s why, since 2015, the federal government has made unprecedented investments in science and technology, at an average of $13.6 billion per year, compared to the average from 2009-10 to 2015-16 of just $10.8 billion per year. But we can’t stop here.

To advance the next generation of cutting-edge research, Budget 2024 proposes major research and science infrastructure investments, including:

  • $399.8 million over five years, starting in 2025-26, to support TRIUMF, Canada’s sub-atomic physics research laboratory, located on the University of British Columbia’s Vancouver campus. This investment will upgrade infrastructure at the world’s largest cyclotron particle accelerator, positioning TRIUMF, and the partnering Canadian research universities, at the forefront of physics research and enabling new medical breakthroughs and treatments, from drug development to cancer therapy.
  • $176 million over five years, starting in 2025‑26, to CANARIE, a national not-for-profit organization that manages Canada’s ultra high-speed network to connect researchers, educators, and innovators, including through eduroam. With network speeds hundreds of times faster, and more secure, than conventional home and office networks, this investment will ensure this critical infrastructure can connect researchers across Canada’s world-leading post-secondary institutions.
  • $83.5 million over three years, starting in 2026-27 to extend support to Canadian Light Source in Saskatoon. Funding will continue the important work at the only facility of its kind in Canada. A synchrotron light source allows scientists and researchers to examine the microscopic nature of matter. This specialized infrastructure contributes to breakthroughs in areas ranging from climate-resistant crop development to green mining processes.
  • $45.5 million over five years, starting in 2024-25, to support the Arthur B. McDonald Canadian Astroparticle Physics Research Institute, a network of universities and institutes that coordinate astroparticle physics expertise. Headquartered at Queen’s University in Kingston, Ontario, the institute builds on the legacy of Dr. McDonald’s 2015 Nobel Prize for his work on neutrino physics. These expert engineers, technicians, and scientists design, construct, and operate the experiments conducted in Canada’s underground and underwater research infrastructure, where research into dark matter and other mysterious particles thrives. This supports innovation in areas like clean technology and medical imaging, and educates and inspires the next wave of Canadian talent.
  • $30 million over three years, starting in 2024-25, to support the completion of the University of Saskatchewan’s Centre for Pandemic Research at the Vaccine and Infectious Disease Organization in Saskatoon. This investment will enable the study of high-risk pathogens to support vaccine and therapeutic development, a key pillar in Canada’s Biomanufacturing and Life Sciences Strategy. Of this amount, $3 million would be sourced from the existing resources of Prairies Economic Development Canada.

These new investments build on existing federal research support:

  • The Strategic Science Fund, which announced the results of its first competition in December 2023, providing support to 24 third-party science and research organizations starting in 2024-25;
  • Canada recently concluded negotiations to be an associate member of Horizon Europe, which would enable Canadians to access a broader range of research opportunities under the European program starting this year; and,
  • The steady increase in federal funding for extramural and intramural science and technology by the government which was 44 per cent higher in 2023 relative to 2015.

Advancing Space Research and Exploration

Canada is a leader in cutting-edge innovation and technologies for space research and exploration. Our astronauts make great contributions to international space exploration missions. The government is investing in Canada’s space research and exploration activities.

  • Budget 2024 proposes to provide $8.6 million in 2024-25 to the Canadian Space Agency for the Lunar Exploration Accelerator Program to support Canada’s world-class space industry and help accelerate the development of new technologies. This initiative empowers Canada to leverage space to solve everyday challenges, such as enhancing remote health care services and improving access to healthy food in remote communities, while also supporting Canada’s human space flight program.
  • Budget 2024 announces the establishment of a new whole-of-government approach to space exploration, technology development, and research. The new National Space Council will enable the level of collaboration required to secure Canada’s future as a leader in the global space race, addressing cross-cutting issues that span commercial, civil, and defence domains. This will also enable the government to leverage Canada’s space industrial base with its world-class capabilities, workforce, and track record of innovation and delivery.

I found two responses to the budget from two science organizations and the responses fall into the moderately pleased category. Here’s an April 17, 2024 news release from Evidence for Democracy (E4D), Note: Links have been removed,

As a leading advocate for evidence-informed decision-making and the advancement of science policy in Canada, Evidence for Democracy (E4D) welcomes the budget’s emphasis on scientific research and innovation. Since its inception, E4D has been at the forefront of advocating for policies that support robust scientific research and its integration into public policy. To support this work, we have compiled a budget analysis for the science and research sector here for more context on Budget 2024. 

“Budget 2024 provides an encouraging investment into next generation researchers and research support systems,” says Sarah Laframboise, Executive Director of E4D, “By prioritizing investments in research talent, infrastructure, and innovation, the government is laying the foundation for a future driven by science and evidence.”

The budget’s initiatives to enhance graduate student scholarships and postdoctoral fellowships reflect a commitment to nurturing Canada’s research talent, a cornerstone of E4D’s advocacy efforts through its role on the Coalition for Canadian Research. E4D is encouraged by this investment in next generation researchers and core research grants, who form the bedrock of scientific discovery and drive innovation across sectors. Additionally, the formation of a new capstone research funding organization and Advisory Council on Science and Innovation are signs of a strategic vision that values Canadian science and research.

While Budget 2024 represents a significant step forward for science and research in Canada, E4D recognizes that challenges and opportunities lie ahead. 

“We note that funding for research in Budget 2024 is heavily back-loaded, with larger funding values coming into effect in a few years time,” adds Laframboise, “Given that this also includes significant structural and policy changes, this leaves some concern over the execution and roll-out of these investments in practice.”

As the details of the budget initiatives unfold, E4D remains committed to monitoring developments, advocating for evidence-based policies, and engaging with stakeholders to ensure that science continues to thrive as a driver of progress and prosperity in Canada. 

The April 16, 2024 E4D budget analysis by Farah Qaiser, Nada Salem, Sarah Laframboise, Simarpreet Singh is here. The authors provide more detail than I do.

The second response to the 2024 budget is from the Canadian Institutes of Health Research (CIHR) is posted on a federal government website, from an April 29, 2024 letter, Note: Links have been removed,

Dear colleagues,

On April 16, 2024, the Government of Canada released Budget 2024 – Fairness for Every Generation – a Budget that proposes a historic level of investment in research and innovation. Most notably for CIHR, NSERC, and SSHRC, this included $1.8 billion in core research grant funding over five years (starting in 2024-25, with $748.3 million per year ongoing). This proposed investment recognizes the vital role played by research in improving the lives of Canadians. We are thrilled by the news of this funding and will share more details about how and when these funds will be distributed as the Budget process unfolds.

Budget 2024 also proposes $825 million over five years (starting in 2024-25, with $199.8 million per year ongoing) to increase the annual value of master’s and doctoral student scholarships to $27,000 and $40,000, respectively, and post-doctoral fellowships to $70,000. This will also increase the number of research scholarships and fellowships provided, building to approximately 1,720 more graduate students or fellows benefiting each year. To make it easier for students and fellows to access support, the enhanced suite of scholarships and fellowship programs will be streamlined into one talent program. These proposals are the direct result of a coordinated effort to recognize the importance of students in the research ecosystem.

The Budget proposes other significant investments in health research, including providing:

  • a further $26.9 million over five years (starting in 2024-25, with $26.6 million in remaining amortization and $6.6 million ongoing) to the granting councils to establish an improved and harmonized grant management system.
  • $10 million in 2024-2025 for CIHR to support an endowment to increase prize values awarded by the Gairdner Foundation for excellence in health research.
  • $80 million over five years for Health Canada to support the Brain Canada Foundation in its advancement of brain research.
  • $30 million over three years (starting in 2024-25) to support Indigenous participation in research, with $10 million each for First Nation, Métis, and Inuit partners.
  • $2 billion over five years (starting in 2024-25) to launch a new AI Compute Access Fund and Canadian AI Sovereign Compute Strategy, to help Canadian researchers, start-ups, and scale-up businesses access the computational power they need to compete and help catalyze the development of Canadian-owned and located AI infrastructure.
  • As well, to help guide research priorities moving forward, Budget 2024 announces that the government will create an Advisory Council on Science and Innovation. This Council will be comprised of leaders from the academic, industry, and not-for-profit sectors, and will be responsible for a national science and innovation strategy to guide priority setting and increase the impact of these significant federal investments.

In addition to these historic investments, Budget 2024 includes a proposal to create a “new capstone research funding organization” that will provide improved coordination across the federally funded research ecosystem. This proposal stems directly from the recommendations of the Advisory Panel on the Federal Research Support System, and recognizes the need for more strategic coordination in the federal research system. The Budget notes that the granting councils will each continue to exist within this new organization, and continue supporting excellence in investigator-driven research, including linkages with the Health portfolio. While the governance implications of this new organization are not known at this time, the CIHR Institutes will remain in place as an integral part of CIHR. As stated in the Budget, the timing and details with respect to the creation of this organization still need to be determined, but it did indicate that more details will be announced in the 2024 Fall Economic Statement.

As well, CIHR will be working closely with the Natural Sciences and Engineering Research Council, Social Sciences and Humanities Research Council, Health Canada, and Innovation, Science and Economic Development Canada in the coming months to implement various Budget measures related to research. In the meantime, CIHR will continue its business as usual.

These announcements and investments are significant and unprecedented and will create exciting opportunities for the Tri-Agencies and other partners across the federal research ecosystem to contribute to the health, social, and economic needs and priorities of Canadians. They will also ensure that Canada remains a world leader in science. This is positive and welcome news for the CIHR community. We look forward to embarking on this new journey with Canada’s health research community.

Tammy Clifford, PhD
Acting President, CIHR

Defence

I have taken to including information about the funding for the military on the grounds that the military has historically been the source of much science, medical, and technology innovation. (Television anyone?)

Defence in the 2024 Canadian federal budget is in Chapter 7: Protecting Canadians and Defending Democracy and after a parade of its greatest budget hits from years past, there’s this,

Stronger National Defence

As the world becomes increasingly unstable, as climate change increases the severity and frequency of natural disasters, and as the risk of conflict grows, Canada is asking more of our military. Whether it is deploying to Latvia as part of Operation REASSURANCE, or Nova Scotia as part of Operation LENTUS, those who serve in the Canadian Armed Forces have answered the call whenever they are needed, to keep Canadians safe.

On April 8 [2024], in response to the rapidly changing security environment, the government announced an update to its defence policy: Our North, Strong and Free. In this updated policy, the government laid out its vision for Canada’s national defence, which will ensure the safety of Canadians, our allies, and our partners by equipping our soldiers with the cutting-edge tools and advanced capabilities they need to keep Canadians safe in a changing world.

  • Budget 2024 proposes foundational investments of $8.1 billion over five years, starting in 2024-25, and $73.0 billion over 20 years to the Department of National Defence (DND), the Communications Security Establishment (CSE), and Global Affairs Canada (GAC) to ensure Canada is ready to respond to global threats and to protect the well-being of Canadian Armed Forces members. Canada’s defence spending-to-GDP ratio is expected to reach 1.76 per cent by 2029-30.  These include:
    • $549.4 million over four years, starting in 2025-26, with $267.8 billion in future years, for DND to replace Canada’s worldwide satellite communications equipment; for new tactical helicopters, long-range missile capabilities for the Army, and airborne early warning aircraft; and for other investments to defend Canada’s sovereignty;
    • $1.9 billion over five years, starting in 2024-25, with $8.2 billion in future years, for DND to extend the useful life of the Halifax-class frigates and extend the service contract of the auxiliary oiler replenishment vessel, while Canada awaits delivery of next generation naval vessels;
    • $1.4 billion over five years, starting in 2024-25, with $8.2 billion in future years, for DND to replenish its supplies of military equipment;
    • $1.8 billion over five years, starting in 2024-25, with $7.7 billion in future years, for DND to build a strategic reserve of ammunition and scale up the production of made-in-Canada artillery ammunition. Private sector beneficiaries are expected to contribute to infrastructure and retooling costs;
    • $941.9 million over four years, starting in 2025-26, with $16.2 billion in future years, for DND to ensure that military infrastructure can support modern equipment and operations;
    • $917.4 million over five years, starting in 2024-25, with $10.9 billion in future years and $145.8 million per year ongoing, for CSE and GAC to enhance their intelligence and cyber operations programs to protect Canada’s economic security and respond to evolving national security threats;
    • $281.3 million over five years, starting in 2024-25, with $216 million in future years, for DND for a new electronic health record platform for military health care;
    • $6.9 million over four years, starting in 2025-26, with $1.4 billion in future years, for DND to build up to 1,400 new homes and renovate an additional 2,500 existing units for Canadian Armed Forces personnel on bases across Canada (see Chapter 1);
    • $100 million over five years, starting in 2024-25, to DND for child care services for Canadian Armed Forces personnel and their families (see Chapter 2);
    • $149.9 million over four years, starting in 2025-26, with $1.8 billion in future years, for DND to increase the number of civilian specialists in priority areas; and,
    • $52.5 million over five years, starting in 2024-25, with $54.8 million in future years, to DND to support start-up firms developing dual-use technologies critical to our defence via the NATO Innovation Fund.

To support Our North, Strong and Free, $156.7 million over three years, starting in 2026-27, and $537.7 million in future years would be allocated from funding previously committed to Canada’s 2017 Defence Policy, Strong, Secure, Engaged.

  • Budget 2024 also proposes additional measures to strengthen Canada’s national defence:
    • $1.2 billion over 20 years, starting in 2024-25, to support the ongoing procurement of critical capabilities, military equipment, and infrastructure through DND’s Capital Investment Fund; and,
    • $66.5 million over five years, starting in 2024-25, with $7.4 billion in future years to DND for the Future Aircrew Training program to develop the next generation of Royal Canadian Air Force personnel. Of this amount, $66.5 million over five years, starting in 2024-25, would be sourced from existing DND resources.
  • Budget 2024 also announces reforms to Canadian defence policy and its review processes:
    • Committing Canada to undertake a Defence Policy Review every four years, as part of a cohesive review of the National Security Strategy; and,
    • Undertaking a review of Canada’s defence procurement system.

With this proposed funding, since 2022, the government has committed more than $125 billion over 20 years in incremental funding to strengthen national defence and help keep Canadians and our democracy safe in an increasingly unpredictable world—today and for generations. Since 2015, this adds up to over $175 billion in incremental funding for national defence.

Enhancing CSIS Intelligence Capabilities

As an advanced economy and an open and free democracy, Canada continues to be targeted by hostile actors, which threaten our democratic institutions, diaspora communities, and economic prosperity. The Canadian Security Intelligence Service (CSIS) protects Canadians from threats, such as violent extremism and foreign interference, through its intelligence operations in Canada and around the world.

To equip CSIS to combat emerging global threats and keep pace with technological developments, further investments in intelligence capabilities and infrastructure are needed. These will ensure CSIS can continue to protect Canadians.

  • Budget 2024 proposes to provide $655.7 million over eight years, starting in 2024-25, with $191.1 million in remaining amortization, and $114.7 million ongoing to the Canadian Security Intelligence Service to enhance its intelligence capabilities, and its presence in Toronto.

Maintaining a Robust Arctic Presence

The Canadian Arctic is warming four times faster than the world average, as a result of climate change. It is also where we share a border with today’s most hostile nuclear power—Russia. The shared imperatives of researching climate change where its impacts are most severe, and maintaining an ongoing presence in the Arctic enable Canada to advance this important scientific work and assert our sovereignty.

Maintaining a robust research presence supports Canada’s Arctic sovereignty. Scientific and research operations in the Arctic advance our understanding of how climate change is affecting people, the economy, and the environment in the region. This is an important competitive advantage, as economic competition increases in the region. 

To support research operations in Canada’s North, Budget 2024 proposes:

  • $46.9 million over five years starting in 2024-25, with $8.5 million in remaining amortization and $11.1 million ongoing, to Natural Resources Canada to renew the Polar Continental Shelf Program to continue supporting northern research logistics, such as lodging and flights for scientists; and,
  • $3.5 million in 2024-25 to Polar Knowledge Canada to support its activities, including the operation of the Canadian High Arctic Research Station.

Protecting Canadians from Financial Crimes

Financial crimes are serious threats to public safety, national security, and Canada’s financial system. They can range from terrorist financing, corruption, and the evasion of sanctions, to money laundering, fraud, and tax evasion. These crimes have real world implications, often enabling other criminal behaviour. Financial crime also undermines the fairness and transparency that are so essential to our economy.

Since 2017, the government has undertaken significant work to crack down on financial crime:

  • Investing close to $320 million since 2019 to strengthen compliance, financial intelligence, information sharing, and investigative capacity to support money laundering investigations;
  • Creating new Integrated Money Laundering Investigative Teams in British Columbia, Alberta, Ontario, and Quebec, which convene experts to advance investigations into money laundering, supported by dedicated forensic accounting experts;
  • Launching a publicly accessible beneficial ownership registry for federal corporations on January 22, 2024. The government continues to call upon provinces and territories to advance a pan-Canadian approach to beneficial ownership transparency;
  • Modernizing Canada’s anti-money laundering and anti-terrorist financing framework to adapt to emerging technologies; vulnerable sectors; and growing risks such as sanctions evasion; and,
  • Establishing public-private partnerships with the financial sector, that are improving the detection and disruption of profit-oriented crimes, including human trafficking, online child sexual exploitation, and fentanyl trafficking.

Budget 2024 takes further action to protect Canadians from financial crimes.

Anti-Money Laundering and Anti-Terrorist Financing

Criminal and terrorist organizations continually look for new ways to perpetrate illicit activities. Canada needs a robust legal framework that keeps pace with evolving financial crimes threats.

To combat money laundering, terrorist financing, and sanctions evasion, Budget 2024 announces:

  • The government intends to introduce legislative amendments to the Proceeds of Crime (Money Laundering) and Terrorist Financing Act (PCMLTFA), the Criminal Code the Income Tax Act, and the Excise Tax Act.
    • Proposed amendments to the PCMLTFA would:
      • Enhance the ability of reporting entities under the PCMLTFA to share information with each other to detect and deter money laundering, terrorist financing, and sanctions evasion, while maintaining privacy protections for personal information, including an oversight role for the Office of the Privacy Commissioner under regulations;
      • Permit the Financial Transactions and Reports Analysis Centre of Canada (FINTRAC) to disclose financial intelligence to provincial and territorial civil forfeiture offices to support efforts to seize property linked to unlawful activity; and, Immigration, Refugees and Citizenship Canada to strengthen the integrity of Canada’s citizenship process;
      • Enable anti-money laundering and anti-terrorist financing regulatory obligations to cover factoring companies, cheque cashing businesses, and leasing and finance companies to close a loophole and level the playing field across businesses providing financial services;
      • Allow FINTRAC to publicize more information around violations of obligations under the PCMLTFA when issuing administrative monetary penalties to strengthen transparency and compliance; and,
      • Make technical amendments to close loopholes and correct inconsistencies.
    • Proposed amendments to the Criminal Code would:
      • Allow courts to issue an order to require a financial institution to keep an account open to assist in the investigation of a suspected criminal offence; and,
      • Allow courts to issue a repeating production order to authorize law enforcement to obtain ongoing, specified information on activity in an account or multiple accounts connected to a person of interest in a criminal investigation.
    • Proposed amendments to the Income Tax Act and Excise Tax Act would:
      • Ensure Canada Revenue Agency officials who carry out criminal investigations are authorized to seek general warrants through court applications, thereby modernizing and simplifying evidence gathering processes and helping to fight tax evasion and other financial crimes.

Canada Financial Crimes Agency

As announced in Budget 2023, the Canada Financial Crimes Agency (CFCA) will become Canada’s lead enforcement agency against financial crime. It will bring together expertise necessary to increase money laundering charges, prosecutions, and convictions, and the seizure of criminal assets.

  • Budget 2024 proposes to provide $1.7 million over two years, starting in 2024-25, to the Department of Finance to finalize the design and legal framework for the CFCA.

Fighting Trade-Based Fraud and Money Laundering

  • Trade-based financial crime is one of the most pervasive means of laundering money; it’s estimated that this is how hundreds of millions of dollars are laundered each year. To strengthen efforts to fight trade fraud and money laundering, the 2023Fall Economic Statement announced enhancements to the Canada Border Services Agency’s authorities under the PCMLTFA to combat trade-based financial crime and the intent to create a Trade Transparency Unit.
  • Budget 2024 builds on this work by proposing to provide $29.9 million over five years, starting in 2024-25, with $5.1 million in remaining amortization and $4.2 million ongoing, for the Canada Border Services Agency to support the implementation of its new authorities under the PCMLTFA to combat financial crime and strengthen efforts to combat international financial crime with our allies.

Supporting Veterans’ Well-Being

After their service and their sacrifice, veterans of the Canadian Armed Forces deserve our full support. Veterans’ organizations are often best placed to understand the needs of veterans and to develop programming that improves their quality of life. In 2018, the federal government launched the Veteran and Family Well-Being Fund, which provides funding to public, private, and academic organizations, to advance research projects and innovative approaches to deliver services to veterans and their families.

  • Budget 2024 proposes to provide an additional $6 million over three years, starting in 2024-25, to Veterans Affairs Canada for the Veteran and Family Well-Being Fund. A portion of the funding will focus on projects for Indigenous, women, and 2SLGBTQI+ veterans.

Telemedicine Services for Veterans and Their Families

After serving in the Canadian Armed Forces, many veterans who previously received their health care from the Forces need to find a family doctor in the provincial system, which makes their transition to civilian life more stressful, especially if they need health care for service-related injuries.

To ensure veterans and their families have access to the care they deserve after their service to Canada:

  • Budget 2024 proposes to provide $9.3 million over five years, starting in 2024-25, to Veterans Affairs Canada to extend and expand the Veteran Family Telemedicine Service pilot for another three years. This initiative will provide up to two years of telemedicine services to recent veterans and their families.

I didn’t expect anything on economic matters, from Chapter 7: Protecting Canadians and Defending Democracy,

7.2 Economic Security for Canada and Our Allies

The system of rules and institutions that were established in the wake of the Second World War unleashed an era of prosperity unprecedented in human history. This era generated a massive expansion of global trade, and lifted hundreds of millions of people out of poverty. As a trading nation with privileged access to more than two-thirds of the global economy, Canada has benefitted enormously from the stability and certainty that this system provided.

Supply chain disruptions and rising protectionism threaten this Canadian advantage that has been enjoyed for generations. Canada is taking action to make sure we preserve the rules-based international order. We are strengthening our trade relationships and making sure they reflect our values. We are ensuring our economy is resilient and secure, protecting Canadians and Canada from economic pressure from authoritarian regimes, and defending Canada’s economic interests.

Budget 2024 makes investments to ensure the opportunities and prosperity of trade, enjoyed by generations of Canadians, continue to be there for every generation.

Key Ongoing Actions

  • Launching in 2017 Strong, Secure, Engaged, to maintain the Canadian Armed Forces as an agile, multi-purpose, combat-ready force, ensuring Canada is strong domestically, an active partner in North America, and engaged internationally.
  • Upholding Canada’s 15 free trade agreements with 51 countries. Canada is the only G7 country with comprehensive trade and investment agreements with all other G7 members.
  • Implementing the modernized Canada-Ukraine Free Trade Agreement and the United Kingdom’s accession to the Comprehensive and Progressive Agreement for Trans-Pacific Partnership.
  • Establishing a new Canada-Taiwan foreign investment promotion and protection arrangement in December 2023.
  • Launching Canada’s Indo-Pacific Strategy in November 2022, committing almost $2.3 billion to strengthen Canada’s role as a strong partner in the region. The strategy included:
    • $492.9 million over five years to reinforce Canada’s Indo-Pacific naval presence and increase Canadian Armed Forces participation in regional military exercises.
    • $227.8 million over five years to increase Canada’s work with partners in the region on national security, cyber security, and responses to crime, terrorism, and threats from weapons proliferation.
    • Canada is negotiating free trade agreements with Indonesia and the Association of Southeast Asian Nations to provide additional trade and investment opportunities in the Indo-Pacific region.
  • To further reinforce Canada’s role as a trusted supply chain partner, and its commitment to cooperate with like-minded partners in meeting emerging global challenges, including the economic resilience of the world’s democracies, Canada undertook the following actions:
    • Joined with the U.S. in the Energy Transformation Task Force to accelerate cooperation on critical clean energy opportunities and to strengthen integrated Canada-U.S. supply chains, which as announced in Chapter 4, has been extended for another year.
    • Canada signed a new agreement in May 2023 with South Korea for cooperation on critical mineral supply chains, clean energy transition, and energy security.
    • Canada endorsed the Joint Declaration Against Trade-Related Economic Coercion and Non-Market Policies and Practices with Australia, Japan, New Zealand, the U.K., and the U.S. in June 2023.

Protecting Canadian Businesses from Unfair Foreign Competition

Canadian companies and workers are able to do business around the world, selling their goods and expertise, because the government has delivered free trade agreements that cover 61 per cent of the world’s GDP and 1.5 billion consumers. This means Canadians can do business in Japan and Malaysia with the CPTPP; in Europe with CETA; in the United States and Mexico with the new NAFTA; and in Ukraine with a modernized CUFTA. These agreements mean good jobs and good salaries for people across the country.

However, this is only true when Canadian workers and businesses are competing on an even playing field, and countries respect agreed trade rules.

That is why the government has taken steps to ensure that Canada’s trade remedy and import monitoring systems have the tools needed to defend Canadian workers and businesses from unfair practices of foreign competitors. For instance, earlier this year, Canada introduced a system to track the countries steel imports are initially melted and poured in, to increase supply chain transparency and support effective enforcement of Canada’s trade laws.

  • Budget 2024 proposes to provide $10.5 million over three years, starting in 2024-25, for the Canada Border Services Agency to create a dedicated Market Watch Unit to monitor and update trade remedy measures annually, to protect Canadian workers and businesses from unfair trade practices, and ensure greater transparency and market predictability.

Ensuring Reciprocal Treatment for Canadian Businesses Abroad

Canada is taking action to protect Canadian businesses and workers from additional global economic and trade challenges. These challenges include protectionist and non-market policies and practices implemented by our trading partners. When Canada opens its markets to goods and services from other countries, we expect those countries to equally grant Canadian businesses the access that we provide their companies.

As detailed in the Policy Statement on Ensuring Reciprocal Treatment for Canadian Businesses Abroad, published alongside the 2023 Fall Economic Statement, Canada will consider reciprocity as a key design element for new policies going forward. This approach builds on Canada’s commitment to implement reciprocal procurement policies, including for infrastructure and sub-national infrastructure spending, in the near term. A reciprocal lens will also be applied to a range of new measures including, but not limited to, investment tax incentives, grants and contributions, technical barriers to trade, sanitary and phytosanitary measures, investment restrictions, and intellectual property requirements.

In pursuing reciprocity, Canada will continue working with its allies to introduce incentives for businesses to reorient supply chains to trusted, reliable partners, and will ensure that any new measures do not unnecessarily harm trading partners who do not discriminate against Canadian goods and suppliers.  

Protecting Critical Supply Chains

Recent events around the world, from the pandemic to Russia’s full-scale invasion of Ukraine, have exposed strategic vulnerabilities in critical supply chains, to which Canada and countries around the world are responding by derisking, or friendshoring, their supply chains. Canada is actively working with its allies to strengthen shared supply chains and deepen our economic ties with trusted partners, including in the context of accelerating the transition to a net-zero economy.

Ongoing efforts to build our critical supply chains through democracies like our own represent a significant economic opportunity for Canadian businesses and workers, and the government will continue to design domestic policies and programs with friendshoring as a top-of-mind objective.

To reinforce Canada’s role as a trusted supply chain partner for our allies, Budget 2023 took action to mobilize private investment and grow Canada’s economy towards net-zero. These investments are growing Canada’s economic capacity in industries across the economy, while simultaneously reducing Canada’s emissions and strengthening our essential trading relationships.

Eradicating Forced Labour from Canadian Supply Chains

Canada is gravely concerned by the ongoing human rights violations against Uyghurs and Muslim minorities in China, as well as by the use of forced labour around the world. 

  • Budget 2024 reaffirms the federal government’s commitment to introduce legislation in 2024 to eradicate forced labour from Canadian supply chains and to strengthen the import ban on goods produced with forced labour. The government will also work to ensure existing legislation fits within the overall framework to safeguard our supply chains.

This will build on funding committed in the 2023 Fall Economic Statement that, starting January 1, 2024, supports the requirement for annual reporting from public and private entities to demonstrate measures they have taken to prevent and reduce the risk that forced labour is used in their supply chains.

Before moving on to an interesting analysis of the defence portion of the 2024 budget by someone else, here’s a link to the national defence policy, Our North, Strong and Free: A Renewed Vision for Canada’s Defence, which was released on April 8, 2024 just days before the April 16, 2024 release date for this latest federal budget.

It seems there was a shift in policy during the nine-day interval. From Murray Brewster’s April 16, 2024 article for the Canadian Broadcasting Corporation’s (CBC) news online website, Note: Links have been removed,

The new federal budget promises good things will happen at the Department of National Defence … next year, and hopefully in the years after.

The new fiscal plan, presented Tuesday by Finance Minister Chrystia Freeland, marks a subtle but significant shift from what was proposed in last week’s long-awaited defence policy [emphasis mine], which committed to spending an additional $8.1 billion on defence.

The funding envelope in the budget earmarks the same amount but includes not only the defence department but proposed spending on both the Communications Security Establishment — the country’s electronic spy agency — and Global Affairs Canada. [emphases mine]

While the overall defence budget is expected to increase marginally in the current fiscal year to $33.8 billion, defence experts told CBC News that when the internal cost-cutting exercise ordered by the Liberal government and the new defence policy are factored in, the military can expect roughly $635 million less this year [emphasis mine] than was anticipated before spending restraint kicked in.

Freeland’s fiscal plan projects a 30 per cent increase in defence spending in the next fiscal year, bringing it to $44.2 billion.

This is how I understand what Brewster is saying:

  • 2024/25 defence budget as listed is $33.8B
  • Not all of this money is going directly to defence (the Communications Security Establishment and Global Affairs Canada will be partaking)
  • the defence department has been ordered to cut costs
  • so, there will be $635M less than defence might have expected
  • in 2025/26 defence spending will be increased to $44.2 billion, whatever that means

That’s quite the dance and Brewster’s April 16, 2024 article points out at least one more weakness,

Sahir Khan, the executive vice-president of the University of Ottawa’s Institute of Fiscal Studies and Democracy, said he would love to see the specifics.

“That’s one of the difficulties, I think, with this government is we have seen a lot of aspiration, but not always the perspiration,” said Khan, a former deputy parliamentary budget officer. “What is the plan to achieve the results?”

The politically charged promise to increase Canada’s defence spending to 1.76 per cent of the gross domestic product by the end of the decade could be left in doubt when the spending plans are laid alongside the budget’s economic projections during that time frame.

Generally, the better the economy does, the more the defence budget would have to be increased to meet the target.

“It’s really unclear how we actually get to 1.76 per cent of GDP, if you take the figures that are presented which outline how spending is going to increase,” said Dave Perry, a defence expert and president of the Canadian Global Affairs Institute.

“You can’t put that against the nominal GDP projection provided in the budget” and then add in other government departments, such as Veterans Affairs Canada, “and get anywhere close” to the GDP projection in the defence policy, he said.

There are more questions about the proposed defence spending in the 2024 federal budget in Brewster’s other April 16, 2024 article for CBC (Critics attack long timelines in defence plan as military awaits a budget boost).

About five weeks after the budget was released, Prime Minister Justin Trudeau received a letter, from a May 23, 2024 article by Alexander Panetta for CBC News online,

Nearly one-quarter of the members of the United States Senate have sent an unusually critical letter to Prime Minister Justin Trudeau expressing dismay over Canada’s level of defence spending.

They pressed Trudeau to come to this summer’s NATO summit with a plan to fulfil Canada’s commitment to reach the alliance’s longstanding spending target.

The letter from 23 members of the U.S. Senate, from both parties, represents a dramatic and public escalation of pressure from Washington over a longstanding bilateral irritant.

That written critique [letter] comes just days after Defence Minister Bill Blair completed what he referred to as a productive trip to Washington to promote Canada’s new military strategy.

“We are concerned and profoundly disappointed,” says the letter, referring to the spending levels in the strategy Blair came to promote.

The pressure is continuing at this year’s Halifax [Nova Scotia, Canada] International Security Forum held from November. 22 – 24, 2024 as can be seen in Sean Boynton’s November 24, 2024 article (includes embedded video) for Global News

A bipartisan pair of U.S. senators say they expect Canada and the U.S. to work collaboratively on shared issues of defence and the border, but suggested Ottawa’s policies on military spending need to change to speed up progress.

Speaking to Mercedes Stephenson from the Halifax International Security Forum in an interview that aired Sunday on The West Block, Republican Sen. James Risch of Idaho and Democratic Sen. Jeanne Shaheen of New Hampshire downplayed concerns that incoming president-elect Donald Trump will penalize Canada on things like trade if it doesn’t step up on defence spending.

As far as I’m concerned, this budget offers some moderate gains from a science and technology perspective and with regard to military spending, it seems a little lacklustre overall and with regard to military research, that might be called nonexistent.

Nano-treatment could help save mangroves from deadly disease

Seems to be my week for coastal erosion. First, there was my August 23, 2024 posting “Electricity (electrodeposition) could help fight coastal (beach) erosion” and today, August 30, 2024, I’m featuring news I got about a month ago (late July 2024) regarding a special formula to help save mangroves on the Florida coast and other coasts where they are found.

A July 26, 2024 news item on ScienceDaily features news from the University of Central Florida, Note: Links have been removed,

Mangroves and palm trees are hallmarks of the Sunshine State not just for their beauty but for their immense importance to Florida’s coastlines.

Mangroves are crucial because they naturally protect coastal shores from storm damage and serve as vital wildlife habitats around the world.

Scientists at the University of Central Florida are working to preserve mangroves in Florida and across the world from an increasingly prevalent disease-causing variety of fungi that lies dormant but becomes active when the tree is exposed to stressors such as temperature fluctuation, pests or other diseases.

A July 26, 2024 University of Central Florida (UCF) news release by Eddy Duryea (also on EurekAlert), which originated the news item, describes the disease (which hasn’t yet been formally named) and gives some details about the proposed treatment, Note: Links have been removed,

The disease does not yet have an official name, but it is being referred to by scientists as “Mangrove CNP.” It is caused by a group of fungal pathogens, including Curvularia, Neopestalotiopsis, and Pestalotiopsis, that causes yellowing and spots, and gradually weaken the mangrove until it ultimately dies.

Melissa Deinys, a UCF undergraduate researcher, and Jorge Pereira, a UCF graduate research assistant, are working to help turn the tide by developing and testing a promising nutritional cocktail comprised of nanoparticles to strengthen mangroves and counter the pathogens. The work is through UCF professor Swadeshmukul Santra’s Materials Innovation for Sustainable Agriculture (MISA) center at UCF, which is a U.S. Department of Agriculture-National Institute of Food and Agricultural recognized Center of Excellence.

Mangrove CNP in Florida was first identified as causing mangrove die-offs by Deinys in 2019 in Miami through her work with Fairchild Tropical Botanic Garden. Later, the Marine Resources Council, a non-profit organization dedicated to the protection and restoration of Florida’s Indian River Lagoon, verified and cited her efforts.

Deinys and collaborators with the MRC and Fairchild Tropical Botanic Garden have determined that about 80% of the mangroves they had sampled have tested positive for at least one of the fungal pathogen species. She says they have sampled over 130 mangroves between the Indian River Lagoon and Miami mangrove populations.

The researchers are treating the mangroves by soaking them in a nutrient solution called “Mag Sun” (MgSuN), which is comprised of magnesium and sulfur nanoparticles. The mixture is a refinement of a previous graduate student’s formula that destroyed bacteria on tomatoes, Pereira says.

“The reason why we choose magnesium is because it is more environmentally friendly, and plants need a lot of magnesium,” he says. “I combined our magnesium formulation with a sodium polysulfide. Sulfur is one of those elements that is ubiquitous in the environment, and the idea is that you can combine both to actually enhance the anti-microbial capacity for both bacteria and fungi and you also supply key nutrients to the plants so that they can grow greener and leafier.”

During lab tests, the researchers say they observed growth inhibition of up to 95% when treated with MgSuN at varying concentrations compared to the untreated control.

The formula acts as a sort of antibiotic and multivitamin, and it has shown great potential in bolstering the health of infected mangroves at nurseries across Florida, Pereira says.

“We’ve done some experiments, and we have tested both in vitro and in plants,” he says. “We’re working with the nurseries, and we’ve seen it does kill the pathogens with no detrimental effects to the mangroves while kickstarting their health. They look great after treatment.”

Deinys is continuing her work with the Fairchild Tropical Botanic Garden, MRC and nurseries across Florida while staying the course on her path to graduation and furthering her research at UCF.

She began studying the fungal pathogens in 2018 in Miami prior to being enrolled at UCF and has seen the mangroves become increasingly affected by the pathogens’ opportunistic nature.

“Back at the botanical gardens where I started, I would see the plants have these pathogens but not to a detrimental effect where we now see these organisms collapsing,” she says. “A mangrove nursery [The Marine Resources Council] had reached out to us, and they told us they had an insect infestation and then the whole population got wiped out by the pathogen. We’re also getting reports from places like Tampa that say areas that have more runoff are having more pathogen-related deterioration compared to 10 years ago.”

The fungi have been well-documented for some time, but volatile temperature changes, frequent storms and other increasing stressors open the door to the fungi taking a hold of the mangroves, Deinys says.

“They’re called opportunistic, and they’re called that for a reason,” she says. “They see a change in the plant and that’s when they start to take effect.”

How the pathogens are acquired is something that remains unclear, Deinys says. Researchers hypothesize it may be introduced through water, wind or insects, but further studies are needed to determine how it is acquired since it poses threat to mangrove health.

“You have to study all possibilities to determine what is the vector,” Deinys says. “We’ve seen papers and literature in other countries that have shown these pathogens for a long time. It’s been difficult because there is a disconnect in mangrove communities because we’re worlds apart and with different languages.”

The MgSuN nutrient solution is a treatment, but not a cure, Deinys says. There still are ample stressors that should be managed and mitigated, such as human-caused habitat destruction, in addition to treating the pathogens.

“I think there’s a big restoration effort to repopulate mangroves,” she says. “But first we need to look at the health of these mangroves and the health of the ecosystem before we determine what more we should do. We’re working with mangrove nurseries to see if we can together develop solutions.”

Maintaining and restoring mangroves is an essential component of ecological stewardship, and it’s a passion that Deinys hopes to continue throughout her career.

“I started this project my freshman year,” she says. “I didn’t want to leave what I was doing, and I came here with a mission. I met with Dr. Santra, our PI, and he wanted to help. He gave me a lot of freedom, and I’m really grateful.”

Deinys says that her research at UCF has been incredibly gratifying.

“There is a sense of community here that I found,” she says. “I joined the lab, and it felt like I found my family and that’s one of the best things to have come out of this experience. This has been one of my life’s passions, and I hope I’ll always stay with this project even after.”

Santra is encouraged by the research conducted by Pereira and Deinys, and he is hopeful it continues to bolster mangrove ecosystems.

“The UCF MISA center is dedicated to solving global problems that threaten agricultural sustainability,” he says. “We are excited to have another crop protection tool in our toolbox for protecting mangroves. I see the future of MagSun as a broad-spectrum fungicide, where GRAS (Generally Recognized As Safe) materials are empowered through nanotechnology.”

Further studies are needed to pinpoint which stressors are affecting the mangroves the most so that scientists can better preserve them, Pereira says.

“It’s very important to understand the stressors, and we need to really address if it’s a change in temperature, if it’s runoff or if it’s an additional pathogen,” he says. “In the meantime, we need to do something to prevent this damage from occurring.”

Researchers’ Credentials

Deinys graduated from BioTECH @ Richmond Heights High School, a conservation biology magnet school, where she began her research journey at Fairchild Tropical Botanic Garden and specialized in botany. In Fall 2022, Deinys joined UCF and became a member of the Santra Lab the following spring. She is an undergraduate research assistant working towards her bachelor’s degree in biotechnology.

Pereira graduated from Universidad Nacional Autónoma de Honduras with a degree in industrial chemistry. He joined Santra’s lab in 2020 and is currently a graduate research assistant and working toward his doctoral degree in chemistry.

Santra holds a doctorate in chemistry from the Indian Institute of Technology Kanpur. After graduating, he worked at the University of Florida (UF) as a postdoctoral researcher and later as a research assistant professor at the UF Department of Neurological Surgery and Particle Engineering Research Center. In 2005, Santra joined UCF as an assistant professor at the NanoScience Technology Center, the Department of Chemistry and the Burnett School of Biomedical Sciences. He is the director of the UCF Materials Innovation for Sustainable Agriculture center, a USDA-NIFA-recognized Center of Excellence.

They don’t seem to have published a paper about their work but there is this video,

After sugar-free meals, soil bacteria respire more CO2

Scientists have found out more about how carbon cycles through the environment in a June 11, 2024 news item on ScienceDaily,

When soil microbes eat plant matter, the digested food follows one of two pathways. Either the microbe uses the food to build its own body, or it respires its meal as carbon dioxide (CO2) into the atmosphere.

Now, a Northwestern University [Illinois, US]-led research team has, for the first time, tracked the pathways of a mixture of plant waste as it moves through bacteria’s metabolism to contribute to atmospheric CO2. The researchers discovered that microbes respire three times as much CO2 from lignin carbons (non-sugar aromatic units) compared to cellulose carbons (glucose sugar units), which both add structure and support to plants’ cellular walls.

These findings help disentangle the role of microbes in soil carbon cycling — information that could help improve predictions of how carbon in soil will affect climate change.

Caption: Image of soil with a close-up of a bacterium and the cellular pathways involved in carbon dioxide productions. Available substrates from soil organic matter are processed through specific pathways with different amount of carbon dioxide output flux.. Credit: Aristilde Lab/Northwestern University

A June 11, 2024 Northwestern University news release (also received via email and on EurekAlert), which originated the news item, explains what this research means, Note: Links have been removed,

“The carbon pool that’s stored in soil is about 10 times the amount that’s in the atmosphere,” said Northwestern University’s Ludmilla Aristilde, who led the study. “What happens to this reservoir will have an enormous impact on the planet. Because microbes can unlock this carbon and turn it into atmospheric CO2, there is a huge interest in understanding how they metabolize plant waste. As temperatures rise, more organic matter of different types will become available in soil. That will affect the amount of CO2 that is emitted from microbial activities.”

An expert in the dynamics of organics in environmental processes, Aristilde is an associate professor of civil and environmental engineering at Northwestern’s McCormick School of Engineering and is a member of the Center for Synthetic Biology and of the Paula M. Trienens Institute for Sustainability and Energy. Caroll Mendonca, a former Ph.D. candidate in Aristilde’s laboratory, is the paper’s first author. The study includes collaborators from the University of Chicago.

‘Not all pathways are created equally’

The new study builds upon ongoing work in Aristilde’s laboratory to understand how soil stores — or releases — carbon. Although previous researchers typically tracked how broken-down compounds from plant matter move individually through bacteria, Aristilde’s team instead used a mixture of these compounds to represent what bacteria are exposed to in the natural environment. Then, to track how different plant derivatives moved through a bacterium’s metabolism, the researchers tagged individual carbon atoms with isotope labels.

“Isotope labeling allowed us to track carbon atoms specific to each compound type inside the cell,” Aristilde said. “By tracking the carbon routes, we were able to capture their paths in the metabolism. That is important because not all pathways are created equally in terms of producing carbon dioxide.”

Sugar carbons in cellulose, for example, traveled through glycolytic and pentose-phosphate pathways. These pathways lead to metabolic reactions that convert digested matter into carbons to make DNA and proteins, which build the microbe’s own biomass. But aromatic, non-sugar carbons from lignin traveled a different route — through the tricarboxylic acid cycle.

“The tricarboxylic acid cycle exists in all forms of life,” Aristilde said. “It exists in plants, microbes, animals and humans. While this cycle also produces precursors for proteins, it contains several reactions that produce CO2. Most of the CO2 that gets respired from metabolism comes from this pathway.”

Expanding the findings

After tracking the routes of metabolism, Aristilde and her team performed quantitative analysis to determine the amount of CO2 produced from different types of plant matter. After consuming a mixture of plant matter, microbes respired three times as much CO2 from carbons derived from lignin compared to carbons derived from cellulose.

“Even though microbes consume these carbons at the same time, the amount of CO2 generated from each carbon type is disproportionate,” Aristilde said. “That’s because the carbon is processed via two different metabolic pathways.”

In the initial experiments, Aristilde and her team used Pseudomonas putida, a common soil bacterium with a versatile metabolism. Curious to see if their findings applied to other bacteria, the researchers studied data from previous experiments in scientific literature. They found the same relationship they discovered among plant matter, metabolism and CO2 manifested in other soil bacteria.

“We propose a new metabolism-guided perspective for thinking about how different carbon structures accessible to soil microbes are processed,” Aristilde said. “That will be key in helping us predict what will happen with the soil carbon cycle with a changing climate.”

The study, “Disproportionate carbon dioxide efflux in bacterial metabolic pathways for different organic substrates leads to variable contribution to carbon use efficiency,” was supported by the National Science Foundation (grant numbers CBET-1653092 and CBET-2022854).

Here’s a link to and a citation for the paper,

Disproportionate Carbon Dioxide Efflux in Bacterial Metabolic Pathways for Different Organic Substrates Leads to Variable Contribution to Carbon-Use Efficiency by Caroll M. Mendonca, Lichun Zhang, Jacob R. Waldbauer, and Ludmilla Aristilde. Environ. Sci. Technol. 2024, 58, 25, 11041–11052 DOI: https://doi.org/10.1021/acs.est.4c01328 Publication Date:June 11, 2024 Copyright © 2024 The Authors. Published by American Chemical Society.

This paper is open access and has a Creative Commons licence: CC-BY-NC-ND 4.0..

Electricity (electrodeposition) could help fight coastal (beach) erosion

I live in a coastal region and a few months ago our local municipal voted down an initiative that included some mitigation for beach erosion. So, this research caught my eye.

Caption: An artistic impression of how electricity could be used to strengthen coastlines. Credit: Northwestern University

An August 22, 2024 news item on phys.org announces an unexpected approach to dealing with coastal erosion,

New research from Northwestern University has systematically proven that a mild zap of electricity can strengthen a marine coastline for generations—greatly reducing the threat of erosion in the face of climate change and rising sea levels.

An August 22, 2024 Northwestern University news release (received via email and also found on EurekAlert) by Amanda Morris, which originated the news item, delves further into the topic, Note: Links have been removed,

In the new study, researchers took inspiration from clams, mussels and other shell-dwelling sea life, which use dissolved minerals in seawater to build their shells.

Similarly, the researchers leveraged the same naturally occurring, dissolved minerals to form a natural cement between sea-soaked grains of sand. But, instead of using metabolic energy like mollusks do, the researchers used electrical energy to spur the chemical reaction.

In laboratory experiments, a mild electrical current instantaneously changed the structure of marine sand, transforming it into a rock-like, immoveable solid. The researchers are hopeful this strategy could offer a lasting, inexpensive and sustainable solution for strengthening global coastlines.

The study will be published on Thursday (Aug. 22 [2024]) in the journal Communications Earth and the Environment, a journal published by Nature Portfolio.

“Over 40% of the world’s population lives in coastal areas,” said Northwestern’s Alessandro Rotta Loria, who led the study. “Because of climate change and sea-level rise, erosion is an enormous threat to these communities. Through the disintegration of infrastructure and loss of land, erosion causes billions of dollars in damage per year worldwide. Current approaches to mitigate erosion involve building protection structures or injecting external binders into the subsurface.

“My aim was to develop an approach capable of changing the status quo in coastal protection — one that didn’t require the construction of protection structures and could cement marine substrates without using actual cement. By applying a mild electric stimulation to marine soils, we systematically and mechanistically proved that it is possible to cement them by turning naturally dissolved minerals in seawater into solid mineral binders — a natural cement.”

Rotta Loria is the Louis Berger Assistant Professor of Civil and Environmental Engineering at Northwestern’s McCormick School of Engineering. Andony Landivar Macias, a former Ph.D. candidate in Rotta Loria’s laboratory, is the paper’s first author. Steven Jacobsen, a mineralogist and professor of Earth and planetary sciences in Northwestern’s Weinberg College of Arts and Sciences, also co-authored the study.

Sea walls, too, erode

From intensifying rainstorms to rising sea levels, climate change has created conditions that are gradually eroding coastlines. According to a 2020 study by the European commission’s Joint Research Centre, nearly 26% of the Earth’s beaches will be washed away by the end of this century.

To mitigate this issue, communities have implemented two main approaches: building protection structures and barriers, such as sea walls, or injecting cement into the ground to strengthen marine substrates, widely consisting of sand. But multiple problems accompany these strategies. Not only are these conventional methods extremely expensive, they also do not last.

“Sea walls, too, suffer from erosion,” Rotta Loria said. “So, over time, the sand beneath these walls erodes, and the walls can eventually collapse. Oftentimes, protection structures are made of big stones, which cost millions of dollars per mile. However, the sand beneath them can essentially liquify because of a number of environmental stressors, and these big rocks are swallowed by the ground beneath them.

“Injecting cement and other binders into the ground has a number of irreversible environmental drawbacks. It also typically requires high pressures and significant interconnected amounts of energy.”

Turning ions into glue

To bypass these issues, Rotta Loria and his team developed a simpler technique, inspired by coral and mollusks. Seawater naturally contains a myriad of ions and dissolved minerals. When a mild electrical current (2 to 3 volts) is applied to the water, it triggers chemical reactions. This converts some of these constituents into solid calcium carbonate — the same mineral mollusks use to build their shells. Likewise, with a slightly higher voltage (4 volts), these constituents can be predominantly converted into magnesium hydroxide and hydromagnesite, a ubiquitous mineral found in various stones.

When these minerals coalesce in the presence of sand, they act like a glue, binding the sand particles together. In the laboratory, the process also worked with all types of sands — from common silica and calcareous sands to iron sands, which are often found near volcanoes.

“After being treated, the sand looks like a rock,” Rotta Loria said. “It is still and solid, instead of granular and incohesive. The minerals themselves are much stronger than concrete, so the resulting sand could become as strong and solid as a sea wall.”

While the minerals form instantaneously after the current is applied, longer electric stimulations garner more substantial results. “We have noticed remarkable outcomes from just a few days of stimulations,” Rotta Loria said. “Then, the treated sand should stay in place, without needing further interventions.”

Ecofriendly and reversible

Rotta Loria predicts the treated sand should keep its durability, protecting coastlines and property for decades.

Rotta Loria also says there is no need to worry negative effects on sea life. The voltages used in the process are too mild to feel. Other researchers have used similar processes to strengthen undersea structures or even restore coral reefs. In those scenarios, no sea critters were harmed.

And, if communities decide they no longer want the solidified sand, Rotta Loria has a solution for that, too, as the process is completely reversible. When the battery’s anode and cathode electrodes are switched, the electricity dissolves the minerals — effectively undoing the process.

“The minerals form because we are locally raising the pH of the seawater around cathodic interfaces,” Rotta Loria said. “If you switch the anode with the cathode, then localized reductions in pH are involved, which dissolve the previously precipitated minerals.”

Competitive cost, countless applications

The process offers an inexpensive alternative to conventional methods. After crunching the numbers, Rotta Loria’s team estimates that his process costs just $3 to $6 per cubic meter of electrically cemented ground. More established, comparable methods, which use binders to adhere and strengthen sand, cost up to $70 for the same unit volume.

Research in Rotta Loria’s lab shows this approach also can heal cracked structures made of reinforced concrete. Much of the existing shoreside infrastructure is made of reinforced concrete, which disintegrates due to complex effects caused by sea-level rise, erosion and extreme weather. And if these structures crack, the new approach bypasses the need to fully rebuild the infrastructure. Instead, one pulse of electricity can heal potentially destructive cracks.

“The applications of this approach are countless,” Rotta Loria said. “We can use it to strengthen the seabed beneath sea walls or stabilize sand dunes and retain unstable soil slopes. We could also use it to strengthen protection structures, marine foundations and so many other things. There are many ways to apply this to protect coastal areas.”

Next, Rotta Loria’s team plans to test the technique outside of the laboratory and on the beach.

The study, “Electrodeposition of calcareous cement from seawater in marine silica sands,” was supported by the Army Research Office (grant number W911NF2210291) and Northwestern’s Center for Engineering Sustainability and Resilience.

Here’s a link to and a citation for the paper,

Electrodeposition of calcareous cement from seawater in marine silica sands by Andony Landivar Macias, Steven D. Jacobsen & Alessandro F. Rotta Loria. Communications Earth & Environment volume 5, Article number: 442 (2024) DOI: https://doi.org/10.1038/s43247-024-01604-3 Published: 22 August 2024

This paper is open access.

Using copper to mitigate climate change?

A July 4, 2024 news item on phys.org announces research into copper that mitigates climate change,

Carbon in the atmosphere is a major driver of climate change. Now researchers from McGill University have designed a new catalyst for converting carbon dioxide (CO2) into methane—a cleaner source of energy—using tiny bits of copper called nanoclusters. While the traditional method of producing methane from fossil fuels introduces more CO2 into the atmosphere, the new process, electrocatalysis, does not.

A July 4, 2024 Canadian Light Source (CLS) news release (also received via email) by Rowan Hollinger, which originated the news item, delves further into the research, Note: A link has been removed,

“On sunny days you can use solar power, or when it’s a windy day you can use that wind to produce renewable electricity, but as soon as you produce that electricity you need to use it,” says Mahdi Salehi, Ph.D. candidate at the Electrocatalysis Lab at McGill University. “But in our case, we can use that renewable but intermittent electricity to store the energy in chemicals like methane.”

By using copper nanoclusters, says Salehi, carbon dioxide from the atmosphere can be transformed into methane and once the methane is used, any carbon dioxide released can be captured and “recycled” back into methane. This would create a closed “carbon loop” that does not emit new carbon dioxide into the atmosphere. The research, published recently in the journal Applied Catalysis B: Environment and Energy, was enabled by the Canadian Light Source (CLS) at the University of Saskatchewan (USask).

“In our simulations, we used copper catalysts with different sizes, from small ones with only 19 atoms to larger ones with 1000 atoms,” says Salehi. “We then tested them in the lab, focusing on how the sizes of the clusters influenced the reaction mechanism.”

“Our top finding was that extremely small copper nanoclusters are very effective at producing methane,” continues Salehi. “This was a significant discovery, indicating that the size and structure of the copper nanoclusters play a crucial role in the reaction’s outcome.”

The team plans to continue refining their catalyst to make it more efficient and investigate its large-scale, industrial applications. Their hope is that their findings will open new avenues for producing clean, sustainable energy.

Researcher Mahdi Salehi describes his work in a video provided by the Canadian Light Source (CLS),

Here’s a link to and a citation for the paper,

Copper nanoclusters: Selective CO2 to methane conversion beyond 1 A/cm² by Mahdi Salehi, Hasan Al-Mahayni, Amirhossein Farzi, Morgan McKee, Sepideh Kaviani, Elmira Pajootan, Roger Lin, Nikolay Kornienko, Ali Seifitokaldani. Applied Catalysis B: Environment and Energy Volume 353, 15 September 2024, 124061 DOI: https://doi.org/10.1016/j.apcatb.2024.124061 Available online 9 April 2024, Version of Record 12 April 2024.

This paper is open access. Under a Creative Commons license

Comments on today’s (September 20, 2023) media briefing for the US National Science Foundation’s (NSF) inaugural Global Centers Competition awards

I almost missed the briefing but the folks at the US National Science Foundation (NSF) kindly allowed me to join the meeting despite being 10 minutes late. Before launching into my comments, here’s what we were discussing,

From a September 20, 2023 NSF media briefing (received via email),

U. S. National Science Foundation Media Briefing on the Inaugural Global Centers Awards  

Please join the U.S. National Science Foundation this Wednesday September 20th from 12:30 – 1:30 p.m. EST for a discussion and Q&A on the inaugural Global Centers Competition awards. Earlier this week, NSF along with partner funding agencies from Australia, Canada, and the United Kingdom — announced awards totaling $76.4 million for the inaugural Global Centers Competition. These international, interdisciplinary collaborative research centers will apply best practices of broadening participation and community engagement to develop use-inspired research on climate change and clean energy. The centers will also create and promote opportunities for students and early-career researchers to gain education and training in world-class research while enhancing diversity, equity, inclusion, and accessibility.

NSF will have a panel of experts on hand to discuss and answer questions about these new Global Centers and how they will sync talent across the globe to generate the discoveries and solutions needed to empower resilient communities everywhere.

What: Panel discussion and Q&A on NSF’s Global Centers

When: 12:30 – 1:30 p.m. EST, Wednesday, September 20th, 2023

Where: This briefing [is over.]

Who: Scheduled panelists include…

Anne Emig is the Section Chief for the Programs and Analysis Section in the National Science Foundation Office of International Science and Engineering

Dr. Tanya Berger-Wolf is the Principal Investigator for the Global Centers Track 1 project on AI and Biodiversity Change as well as the Director of the Translational Data Analytics Institute and a Professor of Computer Science Engineering, Electrical and Computer Engineering, as well as Evolution, Ecology, and Organismal Biology at the Ohio State University

Dr. Meng Tao is the Principal Investigator for the Global Centers Track 1 project Global Hydrogen Production Technologies Center as well as a Professor, School of Electrical, Computer and Energy Engineering at Arizona State University

Dr. Ashish Sharma is the Principal Investigator for the Global Centers Track 1 project Clean Energy and Equitable Transportation Solutions as well as the Climate and Urban Sustainability Lead at the Discovery Partners Institute, University of Illinois System

Note: This briefing is only open to members of the media

I’m glad to have learned about this effort and applaud the NSF for its outreach efforts. By comparison, Canadian agencies (I’m looking at you, Natural Sciences and Engineering Council of Canada [NSERC] and Social Science and Humanities Research Council of Canada [SSHRC]) have a lot to learn.

There’s a little more about the Global Centers Competition awards in a September 18, 2023 NSF news release,

Today [September 18, 2023], the U.S. National Science Foundation — along with partner funding agencies from Australia, Canada, and the United Kingdom — announced awards totaling $76.4 million for the inaugural Global Centers Competition. These international, interdisciplinary collaborative research centers will apply best practices of broadening participation and community engagement to develop use-inspired research on climate change and clean energy. The centers will also create and promote opportunities for students and early-career researchers to gain education and training in world-class research while enhancing diversity, equity, inclusion, and accessibility.

“NSF builds capacity and advances its priorities through these centers of research excellence by uniting diverse teams from around the world,” said NSF Director Sethuraman Panchanathan. “Global Centers will sync talent across the globe to generate the discoveries and solutions needed to empower resilient communities everywhere.”

Global Centers are sponsored in part by a multilateral funding activity led by NSF and four partner funding organizations: Australia’s Commonwealth Scientific and Industrial Research Organization (CSIRO), Canada’s Natural Sciences and Engineering Research Council (NSERC) and Social Science and Humanities Research Council (SSHRC), and the United Kingdom’s UK Research and Innovation (UKRI).

Both collectively and independently, the centers will support convergent interdisciplinary research collaborations focused on assessing and mitigating the impacts of climate change on society, people, and communities. Outcomes from Global Centers’ activities will inform and catalyze the development of innovative solutions and technologies to address climate change. Examples include: enhancing awareness of critical information; advancing and advocating for decarbonization efforts; creating climate change adaptation plans tailored to specific localities and groups; using artificial intelligence to study responses of nature to climate change; transboundary water issues; and scaling the production of next-generation technologies aimed at achieving net zero. Several projects include partnerships with tribal groups or historically Black colleges and universities that will broaden participation.

“The National Science Foundation Global Centres initiative provides students and researchers a platform to advance innovative and interdisciplinary research and gain education and training opportunities in world-class research while also enhancing diversity, equity, inclusion and accessibility,” said NSERC President Alejandro Adem. “We at NSERC look forward to seeing the outcomes of the work being done by some of Canada and the world’s best and brightest minds to tackle one of the biggest issues of our time.”

The awards are divided into two tracks. Track 1 are Implementation grants with co-funding from international partners. Track 2 are Design grants meant to provide seed funding to develop the teams and the science for future competitions. Many additional countries are involved in Track 2 and will increase global engagement.

There are seven Track 1 Global Centers that involve research partnerships with Australia, Canada, and the U.K. Each Track 1 Global Center will be implemented by internationally dispersed teams consisting of U.S. and foreign researchers. U.S. researchers will be supported by NSF up to $5 million over four to five years, while foreign researchers will be supported by their respective country’s funding agency (CSIRO, NSERC, SSHRC and UKRI) with a comparable amount of funds.

There are 14 Track 2 Global Centers that are at the community-driven design stage. These centers’ teams involve U.S. researchers in partnerships with foreign researchers from any country. NSF will provide the U.S. researchers up to $250,000 of seed funding over a two-year period. These multidisciplinary, international teams will coordinate the research and education efforts needed to become competitive for Track-1 funding in the future.

“Our combined investment in Global Centers enables exciting researcher and innovation-led international and interdisciplinary collaboration to drive the energy transition,” said UKRI CEO, Dame Ottoline Leyser. “I look forward to seeing the creative solutions developed through these global collaborations.”

Kirsten Rose, Acting Chief Executive of CSIRO, said as Australia’s national science agency, CSIRO is proud to be part of a strong national contribution to solving this critical global challenge. “Partnering with the NSF’s Global Centers means Australia remains at the global forefront of work to build a clean hydrogen industry, build integrated and equitable energy systems, and partnering with regions and industries for a low emissions future.”

Track 1 (Implementation)

  • Global Hydrogen Production Technologies (HyPT) Center
    Grant number: 2330525
    Arizona State University and U.S. partner institutions: University of Michigan, Stanford University and Navajo Technical University.
    Quadrilateral research partnership with Australia, Canada, and the U.K.
    Critical and Emerging Tech: green hydrogen (renewable energy generation).
     
  • Electric Power Innovation for a Carbon-free Society (EPICS)
    Grant number: 2330450
    The Johns Hopkins University and U.S. partner institutions: Georgia Institute of Technology, University of California, Davis, and Resources for the Future.
    Trilateral research partnership with Australia and the U.K.
    Critical and Emerging Tech: renewable energy storage.
     
  • Global Nitrogen Innovation Center for Clean Energy and Environment (NICCEE)
    Grant number: 2330502
    University of Maryland Center for Environmental Sciences and U.S. partner institutions: New York University and University of Massachusetts Amherst.
    Trilateral research partnership with Canada and the U.K.
    Critical & Emerging Tech: green ammonia (bioeconomy + agriculture).
     
  • Understanding Climate Change Impacts on Transboundary Waters
    Grant number: 2330317
    University of Michigan and U.S. partner institutions: Cornell University, College of the Menominee Nation, Red Lake Nation and University of Wisconsin–Madison.
    Bilateral research partnership with Canada.
    Critical and Emerging Tech: N/A.
     
  • AI and Biodiversity Change (ABC)
    Grant number: 2330423 
    The Ohio State University and U.S. partner institutions: University of Pittsburgh and Massachusetts Institute of Technology.
    Bilateral Research partnership with Canada.
    Critical and Emerging Tech: AI.
     
  • U.S.-Canada Center on Climate-Resilient Western Interconnected Grid
    Grant number: 2330582                
    The University of Utah and U.S. partner institutions: University of California San Diego, The University of New Mexico, and The Nevada System of Higher Education.     
    Bilateral Research partnership with Canada.
    Critical and Emerging Tech: AI.
     
  • Clean Energy and Equitable Transportation Solutions
    Grant number: 2330565
    University of Illinois at Urbana-Champaign and U.S. partner institutions: University Corporation for Atmospheric Research and Arizona State University.
    Bilateral Research partnership with the U.K.
    Critical and Emerging Tech: N/A
     

Track 2 (Design)

  • Developing Solutions to Decarbonize Emissions and Fuels
    Grant number: 2330509              
    University of Maryland, College Park.
    International collaboration with Japan, Israel, and Ghana.             
     
  • Enhanced Wind Turbine Blade Durability
    Grant number: 2329911              
    Cornell University.
    International collaboration with Canada, the UK, Norway, Denmark, and Spain.
     
  • Building the Global Center for Forecasting Freshwater Futures
    Grant number: 2330211
    Virginia Tech.
    International collaboration with Australia.
     
  • Climate Risk and Resilience: Southeast Asia as a Living Lab (SEALL)
    Grant number: 2330308
    University of Illinois at Urbana-Champaign.
    International collaboration with Vietnam, Thailand, Singapore, and India.
     
  • Climate-Smart Food-Energy-Water Nexus in Small Farms
    Grant number: 2330505              
    The University of Tennessee Institute of Agriculture.        
    International collaboration with Argentina, Brazil, Guatemala, Panama, Cambodia, and Uganda.
     
  • Center for Household Energy and Thermal Resilience (HEaTR)
    Grant number: 2330533              
    Cornell University.
    International collaboration with India, the U.K, Ghana, and Singapore.
     
  • Enabling interdisciplinary wildfire research for community resilience
    Grant number: 2330343              
    Oregon State University.
    International collaborations with Australia and the U.K.
     
  • SuReMin: Sustainable, resilient, responsible global minerals supply chain
    Grant number: 2330041              
    Northwestern University.
    International collaboration with Chile.
     
  • Nature-based Urban Hydrology Center
    Grant number: 2330413              
    Villanova University.
    International collaboration with Canada, the U.K, Switzerland, Ireland, Australia, Chile, and Turkey.
     
  • A multi-disciplinary framework to combat climate-induced desert locust upsurges, outbreaks, and plagues in East Africa
    Grand number: 2330452
    Georgia State University.
    International collaboration with Ethiopia.
     
  • US-Africa Research Center for Clean Energy
    Grant number: 2330437
    Georgia Institute of Technology.
    International collaborations with Rwanda.
     
  • Equitable and User-Centric Energy Market for Resilient Grid-interactive Communities
    Grant number: 2330504
    Santa Clara University.
    International collaboration with Canada.
     
  • Energy Sovereignty for Indigenous Peoples (ESIP)
    Grant number: 2330387
    University of North Dakota.
    International collaboration with Canada.
     
  • Blue Climate Solutions
    Grant number: 2330518              
    University of Rhode Island.
    International collaboration with Indonesia.

For Canadian researchers who are interested, there’s a National Science Foundation Global Centres webpage on the NSERC website, which answers a lot of questions about the programme from a Canadian perspective. The application deadline for both tracks was May 10, 2023 and there’s no information (as of September 20, 2023) about future competitions. Nice to see the social science and humanities included in the form of a funding agency. (I think this might be the one compliment I deliver to a Canadian funding initiative this year. 🙂

For American researchers, there’s the NSF’s Global Centers webpage; for UK researchers, there’s the United Kingdom’s Research and Innovation’s Global Centres in clean energy and climate change webpage; and for Australian researchers, there’s the CSIRO’s National Science Foundation Global Centers webpage. Application deadlines have passed for all of these competitions and there’s no information (as of September 20, 2023) about future competitions.

A few comments

News about local and international affairs (see Seth Borenstein’s September 20, 2023 Associated Press article “UN chief warns of ‘gates of hell’ in climate summit, but carbon polluting nations stay silent”) and one’s own personal experience with climate issues can be discouraging at times so it’s heartening to see these efforts. Kudos to the organizers of the Global Centers programme and I wish all the researchers success.

Given how new these centers are, it’s understandable that the panelists would be a little fuzzy about specific although they’ve clearly considered and are attempting to address issues such as sharing data, trust, and outreach to various stakeholders and communities.

I wish I’d asked about cybersecurity when they were talking about data. Ah well, there was my question about outreach to people over the age of 50 or 55 as so much of their planning was focused on youth. The panelists who responded (Dr. Tanya Berger-Wolf, Dr. Meng Tao, and Dr. Ashish Sharma) did not seem to have done much thinking about seniors/elders/older people.

I believe bird watching (as mentioned by one of the panelists) does tend to attract older people but citizen science or other hobbies/programmes mentioned may or may not be a good source for seniors outreach. Almost all science outreach tilts to youth including citizen science.

With the planet is not doing so well and with the aging populations in Canada, the US, many European countries, China, Japan, and I’m sure many others perhaps some new thinking about ‘inclusivity’ might be in order. One suggestion, start thinking about age groups. In the same way that 20 is not 30, is not 40, so 55 is not 65, is not 75. One more thing, perhaps take into account life experience. Something that gets forgotten is that a lot of the programmes that people take for granted and a lot of the technology people use today was developed in the 1960s (e.g. Internet). That old person? Maybe it’s someone who founded the UN’s Environment Program (I was teaching a nanotechnology course in a seniors programme and asked students about themselves; I was intimidated by her credentials).

In the end, this Global Center initiative is heartening news.

Smart City tech brief: facial recognition, cybersecurity; privacy protection; and transparency

This May 10, 2022 Association for Computing Machinery (ACM) announcement (received via email) has an eye-catching head,

Should Smart Cities Adopt Facial Recognition, Remote Monitoring Software+Social Media to Police [verb] Info?

The Association for Computing Machinery, the largest and most prestigious computer science society worldwide (100,000 members) has released a report, ACM TechBrief: Smart Cities, for smart city planners to address 1) cybersecurity; 2) privacy protections; 3) fairness and transparency; and 4) sustainability when planning and designing systems, including climate impact. 

There’s a May 3, 2022 ACM news release about the latest technical brief,

The Association for Computing Machinery’s global Technology Policy Council (ACM TPC) just released, “ACM TechBrief: Smart Cities,” which highlights the challenges involved in deploying information and communication technology to create smart cities and calls for policy leaders planning such projects to do so without compromising security, privacy, fairness and sustainability. The TechBrief includes a primer on smart cities, key statistics about the growth and use of these technologies, and a short list of important policy implications.

“Smart cities” are municipalities that use a network of physical devices and computer technologies to make the delivery of public services more efficient and/or more environmentally friendly. Examples of smart city applications include using sensors to turn off streetlights when no one is present, monitoring traffic patterns to reduce roadway congestion and air pollution, or keeping track of home-bound medical patients in order to dispatch emergency responders when needed. Smart cities are an outgrowth of the Internet of Things (IoT), the rapidly growing infrastructure of literally billions of physical devices embedded with sensors that are connected to computers and the Internet.

The deployment of smart city technology is growing across the world, and these technologies offer significant benefits. For example, the TechBrief notes that “investing in smart cities could contribute significantly to achieving greenhouse gas emissions reduction targets,” and that “smart cities use digital innovation to make urban service delivery more efficient.”

Because of the meteoric growth and clear benefits of smart city technologies, the TechBrief notes that now is an urgent time to address some of the important public policy concerns that smart city technologies raise. The TechBrief lists four key policy implications that government officials, as well as the private companies that develop these technologies, should consider.

These include:

Cybersecurity risks must be considered at every stage of every smart city technology’s life cycle.

Effective privacy protection mechanisms must be an essential component of any smart city technology deployed.

Such mechanisms should be transparently fair to all city users, not just residents.

The climate impact of smart city infrastructures must be fully understood as they are being designed and regularly assessed after they are deployed

“Smart cities are fast becoming a reality around the world,”explains Chris Hankin, a Professor at Imperial College London and lead author of the ACM TechBrief on Smart Cities. “By 2025, 26% of all internet-connected devices will be used in a smart city application. As technologists, we feel we have a responsibility to raise important questions to ensure that these technologies best serve the public interest. For example, many people are unaware that some smart city technologies involve the collection of personally identifiable data. We developed this TechBrief to familiarize the public and lawmakers with this topic and present some key issues for consideration. Our overarching goal is to guide enlightened public policy in this area.”

“Our new TechBrief series builds on earlier and ongoing work by ACM’s technology policy committees,” added James Hendler, Professor at Rensselaer Polytechnic Institute and Chair of the ACM Technology Policy Council. “Because many smart city applications involve algorithms making decisions which impact people directly, this TechBrief calls for methods to ensure fairness and transparency in how these systems are developed. This reinforces an earlier statement we issued that outlined seven principles for algorithmic transparency and accountability. We also note that smart city infrastructures are especially vulnerable to malicious attacks.”

This TechBrief is the third in a series of short technical bulletins by ACM TPC that present scientifically grounded perspectives on the impact of specific developments or applications of technology. Designed to complement ACM’s activities in the policy arena, TechBriefs aim to inform policymakers, the public, and others about the nature and implications of information technologies. The first ACM TechBrief focused on climate change, while the second addressed facial recognition. Topics under consideration for future issues include quantum computing, election security, and encryption.

About the ACM Technology Policy Council

ACM’s global Technology Policy Council sets the agenda for ACM’s global policy activities and serves as the central convening point for ACM’s interactions with government organizations, the computing community, and the public in all matters of public policy related to computing and information technology. The Council’s members are drawn from ACM’s global membership. It coordinates the activities of ACM’s regional technology policy groups and sets the agenda for global initiatives to address evolving technology policy issues.

About ACM

ACM, the Association for Computing Machinery, is the world’s largest educational and scientific computing society, uniting educators, researchers and professionals to inspire dialogue, share resources and address the field’s challenges. ACM strengthens the computing profession’s collective voice through strong leadership, promotion of the highest standards, and recognition of technical excellence. ACM supports the professional growth of its members by providing opportunities for life-long learning, career development, and professional networking.

This is indeed a brief. I recommend reading it as it provides a very good overview to the topic of ‘smart cities’ and raises a question or two. For example, there’s this passage from the April 2022 Issue 3 Technical Brief on p. 2,

… policy makers should target broad and fair access and application of AI and, in general, ICT [information and communication technologies]. This can be achieved through transparent planning and decision-making processes for smart city infrastructure and application developments, such as open hearings, focus groups, and advisory panels. The goal must be to minimize potential harm while maximizing the benefits that algorithmic decision-making [emphasis mine] can bring

Is this algorithmic decision-making under human supervision? It doesn’t seem to be specified in the brief itself. It’s possible the answer lies elsewhere. After all, this is the third in the series.

Making carbon capture more efficient and cheaper with graphene filters

Years ago someone asked me if there was any nanotechnology research into carbon capture. I couldn’t answer the question at the time but since then I’ve been on the lookout for more on the topic. So, I’m happy to add this February 25, 2021 news item on Nanowerk to my growing number of carbon capture posts (Note: A link has been removed),

One of the main culprits of global warming is the vast amount of carbon dioxide pumped out into the atmosphere mostly from burning fossil fuels and the production of steel and cement. In response, scientists have been trying out a process that can sequester waste carbon dioxide, transporting it into a storage site, and then depositing it at a place where it cannot enter the atmosphere.

The problem is that capturing carbon from power plants and industrial emissions isn’t very cost-effective. The main reason is that waste carbon dioxide isn’t emitted pure, but is mixed with nitrogen and other gases, and extracting it from industrial emissions requires extra energy consumption – meaning a pricier bill.

Scientists have been trying to develop an energy-efficient carbon dioxide-filter. Referred to as a “membrane”, this technology can extract carbon dioxide out of the gas mix, which can then be either stored or converted into useful chemicals. “However, the performance of current carbon dioxide filters has been limited by the fundamental properties of currently available materials,” explains Professor Kumar Varoon Agrawal at EPFL’s School of Basic Sciences (EPFL Valais Wallis).

Now, Agrawal has led a team of chemical engineers to develop the world’s thinnest filter from graphene, the world-famous “wonder material” that won the Physics Nobel in 2010. But the graphene filter isn’t just the thinnest in the world, it can also separate carbon dioxide from a mix of gases such as those coming out of industrial emissions and do so with an efficiency and speed that surpasses most current filters.

A March 3, 2021 Ecole Polytechnique Fédérale de Lausanne (EPFL) press release (also on EurekAlert but published February 25, 2021), which originated the news item, delves further into the topic,

“Our approach was simple,” says Agrawal. “We made carbon dioxide-sized holes in graphene, which allowed carbon dioxide to flow through while blocking other gases such as nitrogen, which are larger than carbon dioxide.” The result is a record-high carbon dioxide-capture performance.

For comparison, current filters are required to exceed 1000 gas permeation units (GPUs), while their carbon-capturing specificity, referred to as their “carbon dioxide/nitrogen separation factor” must be above 20. The membranes that the EPFL scientists developed show more than ten-fold higher carbon dioxide permeance at 11,800 GPUs, while their separation factor stands at 22.5.

“We estimate that this technology will drop the cost of carbon capture close to $30 per ton of carbon dioxide, in contrast to commercial processes where the cost is two-to-four time higher,” says Agrawal. His team is now working on scaling up the process by developing a pilot plant demonstrator to capture 10 kg carbon dioxide per day, in a project funded by the Swiss government and Swiss industry.

Here’s a link to and a citation for the paper,

Millisecond lattice gasification for high-density CO2– and O2-sieving nanopores in single-layer graphene by Shiqi Huang, Shaoxian Li, Luis Francisco Villalobos, Mostapha Dakhchoune, Marina Micari, Deepu J. Babu, Mohammad Tohidi Vahdat, Mounir Mensi, Emad Oveisi and Kumar Varoon Agrawal. Science Advances 24 Feb 2021: Vol. 7, no. 9, eabf0116 DOI: 10.1126/sciadv.abf0116

This paper appears to be open access.

Keep your building cool with super paint

As temperatures rise and the Arctic melts, scientists are searching for ways to keep us and our buildings cool without adding unduly to our current problems. A July 8, 2020 University of California at Los Angeles news release (also on EurekAlert) announces a new paint,

A research team led by UCLA materials scientists has demonstrated ways to make super white paint that reflects as much as 98% of incoming heat from the sun. The advance shows practical pathways for designing paints that, if used on rooftops and other parts of a building, could significantly reduce cooling costs, beyond what standard white ‘cool-roof’ paints can achieve.

The findings, published online in Joule, are a major and practical step towards keeping buildings cooler by passive daytime radiative cooling — a spontaneous process in which a surface reflects sunlight and radiates heat into space, cooling down to potentially sub-ambient temperatures. This can lower indoor temperatures and help cut down on air conditioner use and associated carbon dioxide emissions.

“When you wear a white T-shirt on a hot sunny day, you feel cooler than if you wore one that’s darker in color — that’s because the white shirt reflects more sunlight and it’s the same concept for buildings,” said Aaswath Raman, an assistant professor of materials science and engineering at UCLA Samueli School of Engineering, and the principal investigator on the study. “A roof painted white will be cooler inside than one in a darker shade. But those paints also do something else: they reject heat at infrared wavelengths, which we humans cannot see with our eyes. This could allow buildings to cool down even more by radiative cooling.”

The best performing white paints currently available typically reflect around 85% of incoming solar radiation. The remainder is absorbed by the chemical makeup of the paint. The researchers showed that simple modifications in a paint’s ingredients could offer a significant jump, reflecting as much as 98% of incoming radiation.

Current white paints with high solar reflectance use titanium oxide. While the compound is very reflective of most visible and near-infrared light, it also absorbs ultraviolet and violet light. The compound’s UV absorption qualities make it useful in sunscreen lotions, but they also lead to heating under sunlight – which gets in the way of keeping a building as cool as possible.

The researchers examined replacing titanium oxide with inexpensive and readily available ingredients such as barite, which is an artist’s pigment, and pow[d]ered polytetrafluoroethylene, better known as Teflon. These ingredients help paints reflect UV light. The team also made further refinements to the paint’s formula, including reducing the concentration of polymer binders, which also absorb heat.

“The potential cooling benefits this can yield may be realized in the near future because the modifications we propose are within the capabilities of the paint and coatings industry,” said UCLA postdoctoral scholar Jyotirmoy Mandal, a Schmidt Science Fellow working in Raman’s research group and the co-corresponding author on the research.

Beyond the advance, the authors suggested several long-term implications for further study, including mapping where such paints could make a difference, studying the effect of pollution on radiative cooling technologies, and on a global scale, if they could make a dent on the earth’s own ability to reflect heat from the sun.

The researchers also noted that many municipalities and governments, including the state of California and New York City, have started to encourage cool-roof technologies for new buildings.

“We hope that the work will spur future initiatives in super-white coatings for not only energy savings in buildings, but also mitigating the heat island effects of cities, and perhaps even showing a practical way that, if applied on a massive, global scale could affect climate change,” said Mandal, who has studied cooling paint technologies for several years. “This would require a collaboration among experts in diverse fields like optics, materials science and meteorology, and experts from the industry and policy sectors.”

Here’s a link (also in the news release) to and a citation for the paper,

Paints as a Scalable and Effective Radiative Cooling Technology for Buildings by Jyotirmoy Mandal, Yuan Yang, Nanfang Yu, Aaswath P. Raman. Joule DOI: https://doi.org/10.1016/j.joule.2020.04.010 Published: May 29, 2020

This paper is behind a paywall.