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This is a part of RBC Thought Leadership and Eurasia Group’s joint report

Canada is looking to build its military, develop an industrial base and forge new commercial partnerships at a wartime pace. A failure to execute could lead to others, notably the U.S., stepping in.

Canada’s enthusiasm for rapid militarization began the moment Donald Trump demanded more from America’s NATO allies and deepened as he mused about taking over parts of the Western Hemisphere, from Panama to Greenland, even putting the idea of Canada as the 51st state on the table. For Canadians, the exercise was initially a budgetary one, finding ways to allocate tens of billions to its small and often overlooked military. But when Trump sent the U.S. military into Venezuela, the warning for Canada and its armed forces took on a sharper focus. Borders are no longer gates. They’re hard lines that need to be defended.

For Canada, the task of building a big military—the biggest since the Second World War—is daunting. In war, extraordinary measures like state-run supply chains can be implemented quickly. In peacetime, each step needs more negotiation—that’s made even harder with a public that barely remembers the losses of the Afghan mission and a military bureaucracy that has struggled with much smaller magnitudes of procurement and deployment. The industrial base is a further challenge. Mention the words “military-industrial complex” and most Canadians will say “no, thanks.” Before Trump returned to power, Canada ranked 27th out of 31 NATO nations when it came to military spending as a share of GDP. In fact, defence spending had languished for the past 25 years at levels well below the late 20th century averages. Military enrolment has also been in terminal decline, with less than two service members for every 1,000 people. Even peacekeeping has declined to a few dozen blue helmets.

The Mark Carney government has taken the challenge head on. Its first budget injected $81.1 billion over five years. Now, Ottawa is trying to reduce the heavy concentration it spends in the United States, taking gunboat diplomacy in a very different direction: its ministers have travelled the world in search of equipment like submarines, and much more, from any ally other than the U.S. Relations with Japan and Germany have been transformed by the idea of peacetime rearmament. Same with South Korea and Sweden.

But now comes the hard part: making choices. Ottawa will inevitably irk an ally, and may very well irk its own military brass, by choosing boats, planes and weapons that aren’t as effective, on the battlefield or the balance sheet, as those American options. The challenge of “interoperability” is even greater if the Canadian military is to continue to share responsibility with the U.S. for the defence of North America. Currently, 100% of Canada’s fighter aircraft, 91% of helicopters, and more than 75% of other mission aircraft originate from the U.S. If the U.S. feels Canada’s non-American equipment isn’t up to the task of defending the Arctic or, for that matter, the North Atlantic, they may just do it themselves, even if it means torpedoing Canada’s sovereignty.

The vast web of red tape in Canada’s defence procurement system—and a bureaucracy trained to say “maybe”—has contributed to draining the private sector of much of its entrepreneurial flex. In recent budgets, fully a quarter of the Industrial and Technology Benefits Policy, or $15.3 billion, was listed as unallocated, due to deployment frictions, certification gates and poor definitions. Even the government admits it takes 15-plus years for a major fleet acquisition. And a recent study found that $18.5 billion in planned capital went unspent over a five-year period. A new ‘Buy Canadian’ military mandate may lead to, at least in the short term, more dollars chasing fewer producers. But greater cyber-security requirements—and a lot of the new spend will go to cyber defence—stands to cause further delays.

To break through that bureaucratic blockade and boost military spending at home, the Carney team opened a new Defence Investment Agency to do something soldiers are trained to do on the battlefield but is less common in government: move fast. The new money hasn’t even started to flow at speed or scale, and regions are insisting on their share, whether in the national interest or not. This will inevitably lead to lower efficiencies and higher costs, even if it does create more jobs for Canadians. It will also challenge Canada to be competitive in the growing global arms market, as it seeks to trade with allies in Europe and Asia—but will need scale and excellence to meet their standards.

Of course, missing in these equations is the sort of private capital that has helped the U.S. military-industrial complex grow. That new kind of military capitalism will be novel for many Canadian operators, and the military. Canada is seeking to play a leading role in the nascent Defence, Security and Resilience Bank—a kind of World Bank for NATO and its allies—which will draw on the strengths of members’ balance sheets to help them borrow on capital markets to finance their own budgets and supply chains. The government’s financial institutions, such as the Business Development Bank and Export Development Canada, will need to play an even greater role in helping small- and medium-sized Canadian businesses raise the capital needed to serve the so-called “primes”—or prime contractors—that sit at the top of every supply chain.

Canada’s defence industrial base includes about 600 firms—compared to 60,000 in the U.S.—and most employ fewer than 250. Those small but mighty Canadian firms have an equally small capital base. Many have been lucky to survive through the demand shocks of various governments and militaries announcing programs and then delaying them, or even shutting them down. Adding to the challenge is the fact that half of Canada’s military exports go to the U.S., which may decide to close the door if Canada snubs the big American primes. A more hidden risk for Canadian SMEs is entanglement. The IP in a complex defence product is often controlled by large operators, usually multinationals, that can shut down a small supplier.

Generals, and their political masters, love their toys, which is why so many photo ops are with big hulks of steel and not small groups of men and women doing the work behind the machines. Still, more of those people will be needed—but are harder to find. Canada’s military employs only 0.38% of the national labour force—down from 0.56% a decade ago, and well below Britain (0.58%), Australia (0.60%) and the U.S. (1.69%). The Canadian military, which has struggled to get close to 100,000 personnel, may need to double or triple in size in the next decade. And it’s not just fighter pilots and combat soldiers. It’s base operators in the Far North and cyber coders across the south. Currently, the Canadian Armed Forces (CAF) is roughly 15,000 members short of its intended size, creating persistent readiness and sustainment gaps. A lack of speed is to blame. Median recruiting timelines are upwards of 271 days, more than double the official target. The delays are sometimes greater for Canada’s large immigrant population, which needs to undergo an even longer security clearance. It’s no wonder more than half the young Canadians who apply ultimately pull out. And then there’s the hurdle of training. The CAF’s training centres are running at 80% capacity due to a shortage of instructors. That pressure may only grow as the military becomes more STEM-driven. The defence sector is 2.5 times as STEM intensive as general manufacturing.

Remilitarization is central to Canada’s effort to carve out a new relevance in the world, especially to allies, old and new. Even before Trump’s second term began, Canada was significantly growing its military participation in eastern Europe in response to the Russian invasion of Ukraine. The Canadian deployment in Latvia is one of Canada’s biggest peacetime missions anywhere and seen in Europe as a meaningful commitment to the continent’s defence. A growing Canadian military may also play a role in defending the Caribbean from drug cartels, as well as unrest in places like Haiti. And, of course, it will define itself once again in the Arctic, on land, in the air, under the ice—and overhead in low orbit, where the next battlefields may play out.

A more sophisticated and better capitalized defence industry—and a more dynamic armed forces—may even help shape the next chapter of Canada-U.S. relations. As partners, not rivals, in taking on the greater threats of China, Russia and Iran. The Great White North’s geographic sanctuary has long been a blessing. Any loss of that sanctuary will challenge the country anew. But for those Canadians who study their history, the role of conflict—present and hidden—has never been far from sight.

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This is a part of RBC Thought Leadership and Eurasia Group’s joint report

Canada is aiming to double non-U.S. exports through two of its biggest trade antagonists, China and India, even as Canadian investment continues to pour into the United States.

Since Mark Carney launched his “elbows up” campaign to get the country to trade more with the rest of the world, and with each other, Canadians have spent and invested more in the United States, even as Americans are doing less in Canada. The strong U.S. economy, and tax breaks under the Big Beautiful Bill, have reinforced the attractiveness of the world’s largest market for Canadian investors. From pension funds to mutual funds, more Canadian dollars than ever have headed south. Business investment has done the same. Carney may need to do even more on taxes and regulations to keep Canadian investments at home.

For all the bark, and bite, of tariffs, Canadian consumers have been slow to change habits, too. Highly visible brands like Tennessee whiskey were perhaps an easy early target. Florida and Arizona vacations have taken a hit, too. But in large measure, Canadians are still watching Netflix, buying Fords and drinking Coke at the same rate as before the trade war.

A couple of generations ago, in the Trudeau 1 era, when Canada was trying to shift away from a Vietnam-era America, similar tensions reverberated through Canadian living rooms, and board rooms. The proverbial U.S. elephant and Canadian mouse was about more than sneezes and colds; it was about dependencies (plural) in the economy, culture and ultimately sovereignty. A new approach emerged to the binary option of dependence versus independence, known as the Third Option in which Canada would become more closely tied with a reconstructed Europe, a re-emerging Asia and a resurgent Third World.

Back then, there was strong concern about Canada as a branch plant economy—meaning American branch plants. But 50 years on, instead of playing from a position of strength, Canada’s search for new global alliances comes at a moment of maximum dependence on, and maximum uncertainty about, the United States. That dependency has been built over the past century through defence and deterrence partnerships like the North American Aerospace Defense Command (NORAD), trade and investment cooperation and, for Canada, a profile that rested on being the ally most like—but not—America. Now, the central risk is not that Canada will suddenly “break” with its neighbour and ally but that attempts to diversify away from U.S. power will expose how little hard leverage Ottawa has with other partners—and how quickly a more transactional White House can weaponize asymmetry in defence, intelligence, and trade. Geography still is destiny.

Canada’s struggle for more independence starts with the economy. The impact of Trump’s tariffs has included the loss off tens of thousands of manufacturing jobs, and body blows to the auto, steel and lumber sectors and regions that depend on them. If those tariffs are sustained, most projections suggest a prolonged period of slow growth for the economy, which will further erode Canada’s relevance on the world stage. The Trump tariffs were felt quickly and deeply, driving down Canada’s overall exports by close to 10% by mid-2025.

Compounding the challenge of dependence, while Canada’s trade deficit with the U.S. is worsening, its investment surplus is growing. The first year of the trade war made Canadians even more keen to invest in the U.S., despite the bourbon boycotts. Canadians injected $61 billion in U.S. securities in the first half of 2025. The country’s biggest pension fund, the Canada Pension Plan, had raised its share of all investments in the U.S. from 35% at the start of the decade to 47% in 2025.

After decades of Canadian exports gravitating to the U.S., business is starting to find opportunities elsewhere. Britain is buying more unwrought gold as investors and central banks look for alternatives to the U.S. dollar. The rest of Europe has been buying more Canadian canola, aluminum, and oil. China is also buying more oil from Canada, thanks to the Trans Mountain pipeline expansion that fuelled an all-time high, in October 2025, of oil shipments outside North America. Even faraway Singapore and Indonesia saw a surge in Canadian sales, from oil to coal to potassium chloride.  

Those successes speak to Carney’s pledge to double exports to non-U.S. markets by 2035. To accelerate the early trend, the Carney government is focussed in 2026 on forging closer trade ties with China and India. The federal government also launched consultations on trade talks with several countries, including the United Arab Emirates, Qatar, Saudi Arabia. And the first Carney budget pledged $159 million over three years for trade-financing programs to assist firms trying to enter and grow in new markets. It will need to do a lot more to unglue the infrastructure bottlenecks that have made Canadian ports among the least efficient in the industrialized world. 

To gain leverage in more overseas markets, Canada will need to do more to enhance its relevance to those countries—especially in countries and markets, like China, India and even continental Europe, that have a history of hitting Canada with non-tariff trade measures when a point needs to be made. That won’t be easy. As global power has shifted to Asia and as Europe and the Middle East rearm and realign, Canada’s relative salience has eroded. The risk is not outright exclusion from clubs, but quiet marginalization in the working coalitions that matter most for security, technology, and industrial policy—and ultimately trade. Consider Ottawa’s Indo-Pacific Strategy and its deepening security partnership with the Philippines—politically effective, yet not enough to deliver big trade breakthroughs in a region where Japan, Australia, India, and ASEAN states look first to Washington, Beijing, and each other. In Europe, Canada’s big contributions to helping defend Latvia, and a more assertive defence of the Arctic, is buying credibility. Closer to home, in the Caribbean, commitments to helping restore order in Haiti, while important and appreciated, aren’t transforming Canada’s place in the region. 

Too often, these allies calibrate their engagement with Canada through the lens of Trump-era conditionality on NATO and trade. Ottawa is seen as tightly bound to U.S. markets and security but slow to invest in capabilities, enforcement, and industrial scale. To carve out a more independent and ambitious role in the world, Canada can build on some of the alliances and networks it’s already part of. Take the Arctic Council, a group of regional players and powers that focuses on soft issues like science and environmental protection. Canada can deepen ties with Scandinavians and perhaps one day re-engage with Russia through those non-military efforts, while also building up military capacity in the region with like-minded allies like Sweden. It cuts to the new (and old) ethos of foreign policy being rooted in interests, not values.

A very different approach could be taken to the Francophonie and Commonwealth, if other members are willing to muscle up, especially with money. In Africa, for instance, where France’s image has deteriorated, Canada can work with francophone partners to strengthen non-military defences against a resurgent ISIS in the Sahel. The Commonwealth can play its own pragmatic role, helping build trade bridges from Australia to India to South Africa while the U.S. doubles down on America First. More military commitments will be needed, too, as the U.S. pulls back from volatile regions and countries. Haiti crystallizes the risk. A Kenya-led mission with UN authority and rising pressure from the Organization of American States gives Canada a chance to be the training and standards hub for Caribbean contributors, focusing on ports, fuel logistics, and basic state functions—and perhaps with difficulty for Canadians to look the other way if the U.S. shows up in the dead of night to take out gangs or shut down migrant rings.

One of the biggest plays for Canada in gaining more leverage may be AUKUS—the security alliance of Australia, U.K. and U.S. The trilateral pact has focussed initially on nuclear submarines—not a Canadian strength—and is now widening its aperture to advanced capabilities, including undersea sensing, low-orbit satellites, and cyber defences, all of which are Canadian strengths. Canada can pitch itself as a serious member for the next stage of the alliance, which would build leverage overseas while also maintaining a respectful and relevant partnership with the U.S.

The year ahead will present plenty of opportunities to explore this sort of realpolitik diplomacy, as Canada helps design or join more strategic approaches based on interests more than values, and pragmatism more than principles. This will be a step back from those more idealistic approaches that emerged in that earlier time of Third Options. But as every nation knows, independence has a price.

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This is a part of RBC Thought Leadership and Eurasia Group’s joint report

A shift in global oil and gas prospects, from Venezuela to Qatar, changes the investment outlook for Albertan exports—and the big infrastructure projects designed to get them to overseas markets.

Canada’s ambitions to be an energy superpower—including oil and gas—is being tested after the U.S. intervention in Venezuela. But the challenges lie well beyond Canada’s immediate neighbourhood. Long-term demand for oil and gas remains an open question, especially as Asia continues to turn to electrons to power growth. A global surplus of supply, including American LNG, clouds the picture further. And then there’s the question of global growth. No growth, no need for more energy, from Canada or anywhere else.

In one strategic swoop in Caracas, U.S. President Donald Trump has attempted to ringfence the Americas with Washington as its most consequential capital. In that respect, Trump may have weakened Canada’s most valuable negotiating card—energy exports. A resurgent Venezuela crude production could displace Canadian oil in the U.S. and leave it scrambling for market share with Saudis and others elsewhere. It’s a potential competitive shock. Over the past 25 years, Canada had solidified its position as the foremost supplier of oil and gas to the world’s biggest oil market, accounting for nearly three out of every five imported barrels entering the U.S. An industry built to serve America now pumps out a record five million barrels per day, compared to just over two million bpd in 2000, with more than 90% of its exports ending up in refineries in the U.S. Midwest, West Coast and the Gulf Coast.

With the U.S. moving at lightning speed on securing its energy and resource needs, Canada needs to pivot quickly, not just to capture a portion of the investment dollars being spent in a hurry, but also to defend its turf and diversify its exports (hello, Xi)—everything all at once to match the American blitz.

Disruptions to the north-south energy flow could deal an economic and political blow to Canada. The industry generates close to $100 billion in annual revenues. A decline in energy exports could also test national unity. Failure to build out Alberta’s oilsands will be seen by the province as a national declaration of political war, at a time when the province’s independence movement is louder than it’s been in a generation. Land-locked Alberta is also at odds with neighbouring British Columbia, which is opposed to building an oil pipeline across its territory to tidewater.

Canada has a few strong cards to play. Venezuela may be home to the world’s largest proven crude oil reserves, but Canada boasts the world’s third largest, with the added advantages of a world-class infrastructure, ready expertise, technology and the capital to deliver on America’s oil needs. After decades of dithering, Ottawa, under Mark Carney, seems to have the will to follow through.

There’s a strong correlation between Canadian oil’s supremacy in the U.S. coinciding with Venezuelan crude’s steady decline (see chart). Both trade primarily in what’s known in the business as “heavy oil,” which has the consistency of peanut butter—it’s harder to extract from the ground, is energy and carbon-intensive to produce, and needs thinning diluents to push through pipelines, adding to shipping costs. Canadian oil’s viscous nature makes it ideal for making gasoline/diesel, jet fuel and plastics, compared to the light blend pumped out from American shale basins.

Canada's oilsands has displaced Mexican and Venezuelan heavy oil in the U.S.

As Canadian oilsands firms innovated over the past decade to overcome cost and emissions intensity, Venezuela’s state-owned Petróleos de Venezuela (PDVSA) fell into a state of neglect, mismanagement, and corruption. Another blow: in 2018, the company was looted by thieves, stripping the oil company of vital equipment, including copper wiring, and its skilled workers fleeing to neighbouring states. If U.S. firms return to Venezuela, they will have to start from scratch in many ways, with some suggesting it will cost upwards of US$100 billion over 10 years to get the Venezuelan oil sector up and running. In a best-case scenario, it would take at least a decade to displace some of Canada’s 4.5 million bpd of oil shipments to the U.S. from Venezuela, which currently produces around 750,000 bpd. That would give Canada a head start to adjust to the new energy paradigm.

Heavy oil is deeply integrated into U.S. refinery systems, which should give oil executives in Calgary some comfort. As early as the 1990s, U.S. refiners began investing billions in heavy-sour configurations to run Canadian and Latin American barrels, given the proximity of both energy sources. Total refining capacity in Gulf Coast refineries (known as PADD 3) rose 2.9 million barrels per day, while Midwest refineries (PADD 2) grew 700,000 bpd. Both regions boosted coker capacity of 1 million bpd during the period.

U.S.-Canadian joint ventures also started to spring up, such as Cenovus and ConocoPhillips collaborating on two refineries in the U.S. as cross-border upstream and downstream flows became entrenched. Meanwhile, Canadian pipeline operators Enbridge and South Bow (spun off from TC Energy) cast a wider system of pipeline spurs and added capacity to reach the Gulf Coast and the Midwest.

Canada’s heavy oil is prized in other markets. While much is made of China becoming an electro-state and other Asian markets switching to renewables, there are few viable substitutes for heavy oil as a critical ingredient for plastics. Rising income levels across Asia is set to fuel ever more demand for TVs, refrigerators, electronics, and Labubu dolls, even as population growth in many emerging markets tapers off. The federal government-owned TMX pipeline expansion has already demonstrated a market for Canadian oil outside the U.S. While overall more than 90% of Canadian oil exports are destined for the U.S., only a third of TMX’s shipmentsended up across the border with the rest shipped to refineries in China, Singapore, South Korea and India.

After all, Asia is where the growth’s at, especially with Europe set to see declining demand. The continent is forecast to account for 80% of total net oil demand growth until 2030, according to the IEA. Indian demand alone is expected to grow almost one million bd, with emerging Asia also in the market for more barrels.

There’s also the perennial question of the value of Canada spending billions on an industry presumed to be slowing down—in a crowded market. While the International Energy Agency recently retreated from its “peak oil” forecast, global demand is inching up only slowly while producers ramp up. New player Guyana, led by production from a three-way ExxonMobil-Chevron-CNOOC venture, has quickly boosted production to around 900,000 bpd in a short span of time. Several OPEC producers and independents such as Brazil, Mexico and Norway also have ambition to pump up oil volumes. While the Saudis, the most influential OPEC producer, have been quiet as U.S. moves threaten to drive down oil prices, Brent crude prices of around US$60 per barrel are nowhere near Saudi government’s fiscal breakeven prices of around US$90.

For Canadian oil firms, which spent roughly $25 billion in dividends and buybacks in 2025, the risk is to embark on a new capital-intensive project without a new pipeline proposal or much visibility when it comes to market direction. Another caveat: Ottawa would insist companies contribute to a much-anticipated and expensive carbon capture storage and utilization (CCUS) project to offset new emissions. Indeed, it’s in writing as part of the Ottawa-Alberta Memorandum of Understanding.

The MoU, which offers a path for the oil industry’s expansion and inject a new investment wave in the country, is an iconic symbol of what Canadian energy can achieve. If it succeeds, the MoU could serve as a model for how Canada can deliver its resources, assets and expertise to a customer base beyond the United States.

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This is a part of RBC Thought Leadership and Eurasia Group’s joint report

An over-correction to the recent surge in irregular immigration is squeezing employers, hammering colleges and universities, and threatening to delay a new wave of resource projects and infrastructure builds—at the same time as Canada is nearing a demographic cliff.

Canadian public and political sentiment toward immigration is increasingly negative. But the sentiment is running contrary to the country’s needs: Canada’s aging population is facing declining fertility rates, leaving immigration central to the expansion of the skilled workforce. Cutting back on immigration drastically could lead to a rapid dip in population, hurting efforts to maintain living standards, drive economic and business activity and meet near-term economic ambitions.

The Mark Carney government’s plan to clamp down on immigration comes after years of expansionary policy. Temporary residents increased beyond capacity during Justin Trudeau’s decade-long tenure that began in 2015. Housing infrastructure and community services were overloaded, and productivity declined as temporary low-wage workers removed the incentive from some businesses to invest in technology, training or equipment. Targets for new temporary residents, including students, are down by over 550,000 in 2026 compared to 2024. And permanent resident targets are down by over 100,000 from 2024 admissions. Even with these reductions, Canadians feel immigration levels are too high.  

The government crackdown may face challenges advancing its broader agenda. The 2025 federal budget allocates billions for nation-building projects to jumpstart the economy and insulate Canada from geopolitical threats. It dedicates funding to scaling Canadian businesses, recognizing larger firms create more jobs and contribute disproportionately to economic growth and productivity.

Making good on these investments, and seizing opportunities before the country, will rely on a skilled workforce—without a smarter immigration strategy, Canada has little hope of attracting that skilled labour. Economic immigrants bring skills experience, innovation, and financial investments. They will be essential to addressing labour shortages in critical sectors like healthcare, technology, skilled trades, and agriculture, as they have done in the past. Global talent will also be key to scaling Canadian companies in key sectors and avoiding population declines in rural parts of the country.

Attracting the talent Canada needs will also be increasingly difficult given growing global competition for talent. By some estimates, the global population is set to peak by mid-2080 and is already shrinking in Europe and China. Other countries will be rolling out the red carpet to prospective citizens as their domestic populations shrink. Canada’s approach to immigration needs to be as much about recruiting as it is selecting.

Competing globally to recruit the best and brightest will require a strong international brand, which recent policy volatility is jeopardizing. Changes to Canada’s immigration point system in recent years have created back doors and side doors, making the system less predictable and transparent—deterring the people needed to build a strong economy from applying. The system has been described as a “lottery” depending less on merit and more on timing and has been criticized for long processing times—over two years for those entering through the entrepreneurial program.

Even if Canada addresses these recruitment challenges, there is little guarantee the newcomers will stay. New research shows one in five immigrants leave within 25 years of arriving in Canada, and the most highly skilled are the biggest flight risks.  Whether newcomer or Canadian-born, many of Canada’s graduates from degree programs in science, technology, engineering and math (STEM) disciplines, emigrate after graduation, primarily to the U.S. And Canada’s three largest startup cities—Toronto, Vancouver, Montreal—lag far behind global leaders, pulling in less than 5% of the venture capital investment that flows into places like San Francisco, New York and Boston.

Attracting and retaining the best and brightest will require more transparent, predictable pathways, faster processing times and investment in infrastructure and services—like housing and health care—to ensure a high standard of living. With a steady inflow of talent, Canada will be better placed to grow businesses and invest in the innovation needed to retain top talent.

In addition to attracting world-class talent, Canada can train for it. International students represent an important opportunity that Canada should be careful not to overlook. Foreign students who graduate from reputable programs in in-demand fields offer needed skills and recognized credentials, making them great candidates for permanent residency. They are also more likely to stay in the country and see higher earnings than immigrants who pursue permanent residency directly. That is, of course, if they come in the first place.

The latest federal budget cut international student numbers drastically for the next two years, by almost half of 2025’s target. Even at its new low, the target is unlikely to be met. International applications have declined significantly as frequent changes to post-graduate work permit eligibility have prospective students doubting whether their studies will provide a path to staying in Canada. The new system is also clunky and cumbersome for applicants. It features new hoops that students and institutions must jump through, namely Provincial Attestation Letters to enforce annual permit caps.

Canada can re-open student pathways and make them appealing again by rebuilding its brand as a country that welcomes foreign students and offers transparent immigration pathways after graduation. With guardrails to ensure colleges and universities maintain integrity, Canada could focus on welcoming students who pursue credentials (e.g., diplomas, degrees) in fields of study (e.g., STEM) that yield positive outcomes after graduation, including higher transition rates to permanent residency. (Rather than constantly revising a list of specific programs eligible for work permits after graduation—feeding into an image of instability.)

As the global population contracts and competition for immigration grows, reactive policies hurt Canada’s brand as a stable and desirable destination. Many Canadians acknowledge the need for immigration to fill labour market gaps, and most concerns about immigration are tied to capacity rather than culture or ideology. A revised immigration strategy with stable targets for both temporary and permanent residents, an international brand strategy, and investments in infrastructure and services can set Canada on a positive course.

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This is a part of RBC Thought Leadership and Eurasia Group’s joint report

Canada’s economic prospects are threatened not just by external shocks and demanding neighbours; they’re up against a deepening asymmetry of federalism that makes a unified economic strategy harder to design, sell, and implement.

Different views among Ottawa, the provinces, and Indigenous governments over how to use natural resources, fund and deliver education, and stabilize a strained health-care system are pulling Canada further toward a patchwork of policy regimes just as it confronts tough trade talks with a more transactional United States and intensifying global competition. Constitutional tools that were once seen as last resorts—the notwithstanding clause, aggressive jurisdictional challenges, demands for exemptions from national regulations and standards, even provincial votes on autonomy—are becoming more commonplace, raising the odds that provinces and Indigenous groups will weaponize hard and soft vetoes on national priorities. One Canada, maybe, but many nations within.

The consequences for national unity are more serious than at any point since the 1990s because fragmentation now comes with cheerleaders and sponsors abroad. A divided global order gives foreign governments, activist networks, and corporate actors more opportunities to exploit jurisdictional tensions, whether by privileging particular provinces in supply-chain decisions, funding litigation and media campaigns around resource projects, or amplifying separatist narratives. For geopolitical rivals, anything that weakens Canada’s coherence as a U.S. ally and G7 partner could even become a feature, not a bug, as sub-national players and Indigenous rights-holders seek to express their voices more assertively over energy, climate, industrial policy, internal trade and, most critically, bilateral trade with the U.S.

Canada’s federation was designed to balance provincial autonomy with federal authority over certain shared concerns, including trade. But over time, the Charter of Rights and Freedoms has pulled the courts into the heart of that balance. The Charter gives individuals and groups—including Indigenous communities and provinces themselves—powerful tools to challenge federal or provincial legislation on rights grounds, forcing policy choices in areas like language, education, and social programs to survive constitutional scrutiny. In practice, this has extended the Supreme Court’s role as an arbiter of federal-provincial and Crown–Indigenous relations, as governments on all sides use the Charter not only to protect rights but also to constrain fiscal and regulatory initiatives they oppose.

Among those weapons, the most contentious is the notwithstanding clause. Once rarely invoked, the clause has been used or seriously threatened in recent years by Quebec, Ontario, Saskatchewan, and Alberta in disputes over language, religious symbols, election finance, labour rights, and education, signalling to voters that governments can bypass courts when rights protections collide with political objectives. 

The regional nature—and divergences—of Canada’s economy only serves to sharpen the competing interests of the provinces, each under a different threat from the Trump trade war and global divisions. Ontario’s economy remains anchored in autos and steel; British Columbia relies heavily on lumber and Asia-facing trade; Saskatchewan depends on canola and other agricultural exports; and Alberta’s prosperity hinges on oil and gas. Canada’s negotiating position struggled through much of 2025 as premiers tried to argue for their patch in Washington. They may reemerge as soon as CUSMA negotiations begin in earnest.

Bill C-5, the One Canadian Economy Act, and political backlash, has become a focal point for federal-provincial tensions over resource governance and Indigenous rights. The legislation allows the federal cabinet to declare projects—ports, pipelines, mines, dams—to be in the national interest and fast-track approvals. Provinces that resent federal intrusion into natural-resource jurisdiction view C-5 as Ottawa reaching over their heads, while many Indigenous groups see the act as a direct attack on their constitutionally protected right to be consulted and accommodated on decisions affecting their lands. The result is a wave of legal challenges and protests that further politicize big-ticket projects the Carney government counts on to diversify away from the United States.

In the wake of C-5, the Canada–Alberta Memorandum of Understanding on energy and climate is both a template for cooperation and a sign of how transactional federalism has become. The MOU commits Ottawa and Edmonton to work together on net-zero by 2050, build major transmission interties, streamline regulatory timelines to roughly two years, and negotiate equivalency agreements on carbon pricing and methane reductions by April 2026. It also sketches pathways for a new export pipeline and carbon capture infrastructure, with explicit references to Indigenous participation and economic benefit-sharing. But the fact that these national priorities are being handled on a project-by-project basis, with one province at a time, underlines how much of the Carney agenda now runs through bilateral deals rather than pan-Canadian frameworks, inviting other resource-rich provinces to demand similar side arrangements or carve-outs—and the growing urban parts of the country, where the ruling Liberals have their political base, to question if their own aspirations are being met, too.

The sleeping giant of Canada’s asymmetrical agitations is Crown–Indigenous relations that sit at the intersection of rights, resources, and legitimacy. Indigenous nations and communities have become sophisticated in their use of both the courts and direct action to halt or reshape major projects, winning injunctions, forcing governments back to the negotiating table, and mobilizing public opinion when they’ve deemed consultation to have been inadequate. B.C. First Nations pose a particular challenge, as they are central to both resource development and expanded exports to the Pacific—and they have different legal standing, given the province came into Confederation without treaties.

Under these pressures, several provinces and Ottawa have started to experiment with exemptions from environmental rules, electricity regulations, and interprovincial trade norms, and some are pushing to further decentralize immigration and demanding more respect for their jurisdiction over housing policies, which remains the country’s political hot potato. As a result, international investors are beginning to price Canadian federalism—once a quirky part of the Great White North—as an operational risk. “Can you get it done?” is still the global response to many Canadian proposals, whether it’s pipelines, mines or large export infrastructure. At the same time, some view this web of rights protections and multi-level consent requirements as a signal of rule-of-law robustness and social licence, especially compared with more arbitrary regimes. The balance between speed and certainty will be measured, in part, by how the Carney government navigates high-profile disputes over C-5 projects and the project commitments under the Canada-Alberta MOU.

The PMO’s highly centralized style is both an asset and a vulnerability. A strong prime ministerial centre can coordinate economic, climate, and foreign policy to respond quickly to U.S. shocks and mobilize federal spending behind a coherent industrial strategy. But governing through a tight PMO and bilateral deals with premiers risks sidelining intergovernmental forums and parliamentary scrutiny, feeding the narrative that Ottawa is imposing its will and prompting provinces to retaliate through the courts, the notwithstanding clause, or their own referendums on autonomy. That’s not to mention the risk of cabinet and caucus, especially in a fragile parliament. Any over-reliance on executive bargains could leave national policy dependent on a handful of political relationships rather than anchored in durable institutions.

The 2026 political calendar heightens the risk that constitutional and jurisdictional disputes move from background noise to full-blown flashpoints. A possible federal election, a scheduled Quebec election, and ongoing battles in Alberta and B.C. over resource policy, climate targets, and revenue-sharing all create incentives for leaders to campaign against Ottawa or against other provinces. This politics of permanent grievance erodes the goodwill necessary for joint economic projects. Without more signals of progress, the summertime meme of “elbows up” is at risk of melting into a wintertime mood of confidence down. 

Bridging these gaps will require a deliberate strategy of political choreography as much as policy design. Federal-provincial-territorial summits on health, housing, and climate can still set common baselines—but are always at risk of becoming provincial shakedowns of the federation. Advertising, public campaigns and town halls, led not only by the prime minister but also premiers, Indigenous leaders and CEOs, can further strengthen a shared narrative around a united and confident Canada. 

Regulatory reform will be a key test of whether the Carney government can use federal powers to unite the country. Efforts to reduce interprovincial trade barriers, harmonize or mutually recognize skills accreditation, and streamline immigration pathways for in-demand occupations all promise gains in productivity and labour mobility, but each step touches sensitive provincial prerogatives. The new cooperation mechanisms embedded in the Canada-Alberta MOU—single-window assessments, clear timelines, and equivalency agreements—offer a model that could, in theory, be extended to other provinces and sectors if trust can be built. Without such reforms, Canada risks leaving significant internal market efficiencies on the table just as it tries to compensate for a less reliable U.S. partner.

Businesses and investors should treat jurisdictional tensions as an enduring feature—and potential strength—of the Canadian landscape. The need to secure multi-level consent and navigate overlapping legal regimes raises transaction costs and lengthens project lead times, but it can also produce more resilient outcomes with stronger social licence and lessen the risk of abrupt reversals. For firms willing to invest in local relationships with provinces, Indigenous governments, and municipalities, Canada’s complex federalism can be a source of differentiated advantage, insulating long-term bets from the whims of any single political actor, including the U.S. The risk in 2026 is that escalating constitutional brinkmanship turns this complexity from a managed challenge into a systemic vulnerability—just when Canada needs a coherent, collective strategy to build a stronger economy, and country.

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The global space economy is poised to nearly triple to US$1.8 trillion by 2035, making the value derived from orbital assets equivalent to that of some G20 economies.

Canada has an opportunity to grow its space economy to $21 billion by 2035 — a four-fold increase.

An estimated $12 billion in public and private capital is needed to spur this growth. Much of that can be leveraged through new procurement strategies.

Canada currently ranks last in public spending among 10 OECD Space Forum members as a percentage of GDP.  At the same time, the Canadian space industry generates $5 billion in sales revenue, which is 25% less than it did in 2014.

Canada’s total space budget is projected to increase 56% over the next decade. That includes a federal budget commitment of $180 million for launch capabilities, with two sites already under development in Atlantic Canada.

Canada can seize this moment by building a new space strategy around five key pillars: sovereignty, defence, technology, commercialization and climate.

The U.S., China, Japan, and Germany provide critical lessons for Canada — especially through strategic procurement, state scale and finance, as well as technical excellence.

Success depends on a more unified approach within government, procurement modernization, capital market activation, export market development and talent mobilization. These are interdependent levers but success requires simultaneous progress across all of them.

We’ve entered an ambitious new space age—and Canada needs an ambitious new space strategy. 

What’s at stake? Our sovereignty in a more divided world. Our prosperity in a new tech universe. And our relevance to allies when the “final frontier” is suddenly the next economic and strategic frontier.  

The global space economy is poised to nearly triple from US$630 billion in 2023 to US$1.8 trillion by 20351, making the value derived from orbital assets equivalent to that of some G20 economies. This transformation is not merely an economic opportunity. There’s a fundamental shift underway in how nations are mapping out their sovereignty and competitiveness, and it’s increasingly through space.

Canada has much of what’s needed to be a leader in this new age. When Jeremy Hansen heads to the moon next year, he’ll be the first non-American to leave Earth’s orbit. Our space researchers are widely seen as among the world’s best (and for a lot more than the Canadarm). And our strong capabilities in the AI economy, and perhaps soon the quantum economy, puts us where the planetary puck is going. 

Unfortunately, too much of Canada’s space ambition rests on past achievements and not enough on future commitments. And we’re at risk of losing altitude just as the global space industry is taking off. As of 2025, Canada is one of the only space-faring nations that can’t launch itself from its own soil even to low orbit. meanwhile, our digital lives increasingly flow through tiny satellites sent from Earth on American and European rockets.

Our private space sector is also nowhere near what Canada could support. The Canadian space industry generates $5 billion in sales revenue2–25% lower than 2014.3 And our space GDP is down 13%, with productivity running about one-third lower than the U.S. space sector. If trends continue, we project negative annual sales growth of just 1% a year over the coming decade, with industry revenue falling to $4.5 billon by 2035. 

Then there’s the challenge of government spending. Canada currently ranks last in public spending among 10 OECD Space Forum members as a percentage of GDP4.  In a decade that saw SpaceX transform the space economy, and the U.S., China, India and Japan all land crafts on the moon, the Canadian Space Agency’s budget fell 18% from 20155—and at $414 million6 is a fraction of the OECD average.

Government institutional space budget as a percentage of GDP 2023 - Canada vs United States: A 17x investment gap

Canada lags behind all OECD space forum peers including Netherlands, U.K., Norway, South Korea, Switzerland, Germany, Italy, France

That’s starting to change, as Canada’s public space investments are again increasing. The total spending for Canada in space reached $549 million in 20247. The federal budget includes a commitment of roughly $180 million8 for launch capabilities, with two spaceports under development (Atlantic Spaceport Complex and Maritime Launch) and several ambitious rocket projects (Canada Rocket Company, NordSpace, Reaction Dynamics). It was also announced that Canada will ramp up its investment in European Space Agency programs by $528.5 million, which will boost R&D for Canadian-made technology, and Canada is the only non-European country partnered with the European Space Agency. 

Canada, the third nation in space after the Soviet Union and the U.S., also has some of the world’s leading satellite and robotics firms, led by Telesat Lightspeed (with nearly 200 satellites planned for orbit over the next two years), Kepler Communications (the first in the world to use lasers to connect Earth and space) and MDA Space (ranked the fifth most innovative globally by Fast Company). Plus, a new generation of innovators, including Mission Control and Canadensys. Our new NATO commitment of dramatically increased spending could spark a generational opportunity to invest in those companies, and many more, including through dual-use space capabilities.

Canada can seize this moment by building a space strategy around five essential pillars:

  • Sovereignty: Building a space industrial base

    An elevated sector requires much bigger Canadian companies, as well as a domestic infrastructure that starts with sovereign launch capabilities. It’s as fundamental as building and operating our own shipping ports.

  • Defence: Becoming an essential ally in the Arctic

    As NATO allies look to Canada for Arctic defence capabilities, we can be the most trusted non-American ally in space, while also being an integral U.S. partner in the defence of North America through our participation in initiatives like the Golden Dome.

  • Technology: Using satellites to secure a digital leap

    The race for AI and quantum will run through new constellations of satellites that Canada can continue to help build and operate. This will be critical to any sovereign tech stack, as is the ability to not only control and secure our data but to leverage it for our own objectives.

  • Commercialization: Breakthrough research and development

    Every company, whether they know it or not, is a space company. Space is embedded in our daily lives and fundamental to our economy, particularly in geolocation services and the transmission and storage of data. Canada should continue to be at the forefront of researching, developing and commercializing these essential technologies.

  • Climate: Protecting Earth from the sky

    Our ability to manage a changing climate, and reduce the impact of extreme weather, runs through space. That will be especially critical as we look to better manage wildfires and develop new ways to protect our changing coastlines and thawing tundra.

To advance this strategy, Canada can draw on plenty of lessons from recent transformations in the space sector, particularly models that embrace defence-oriented priorities while enabling private-sector leadership. The U.S. is the exemplar of recent space innovation and leadership. Following the 2003 Columbia disaster, in which all seven American astronauts onboard the space shuttle were killed, the U.S. pivoted its space strategy from “build and own” to “buy and use.”

Washington became an anchor customer, purchasing services from private companies. Launch costs have fallen 10-fold in some cases, while innovations like reusable rockets, satellite internet like Starlink, and low-cost in-space mobility have emerged. The results speak for themselves: SpaceX’s valuation reached US$350 billion in 20249, while defence-tech companies like Palantir and Anduril command valuations of US$330 billion10 and US$30.5 billion11, respectively.

Canada could use that public-private dynamic to reach similar heights. The current space sector contributes $3.2 billion to GDP12. Using McKinsey’s forecast of a US$755 billion global market by 2035 for ‘backbone’ applications,13 we forecast that, if it receives major investment. Canadian space industry revenue could grow to $21 billion annually by 2035—a four-fold increase.

A key engine propelling this sector growth needs to be Ottawa’s new commitment to dedicating 5% of our GDP to NATO defence spending and dual-use systems.14 Dedicating 5% (of the 5%) to space defence and dual-use systems could inject up to $7.5 billion annually into the Canadian space sector by 2035.15 But Canada also needs to generate more private capital, which will require strategic government spending coupled with a more market-oriented approach. By our estimates, the Canadian space industry will require nearly $5 billion in capital in the coming decade to maintain existing capital stock. In a more ambitious scenario, where Canada doubles its share in the global space market, the country would need $12 billion in space capital.

That strategy needs to recognize a rapidly changing strategic stratosphere, in which two techno-powers—the U.S. and China—are competing for supremacy. We can further use space as a low-orbit lab in which leading science and technology efforts, from computing to life sciences, are accelerating. And as an outer boundary and one of the first points of potential conflict, space will only become more important to national defence.

In this new sphere of influence, Canada can leverage our unique position as both the strongest American ally in space and the leading non-American space player. The choice before us seems clear: embrace ambitious space leadership or accept managed decline in a domain that will define economic and security outcomes for decades to come.

The strategic approaches adopted by the four leading space players—the U.S., China, Japan, and Germany with the context of the European Union—provide critical lessons as Canada looks to accelerate its space sector development.

The U.S. has fundamentally restructured its space industrial base through a major shift from traditional cost-plus contracting to commercial services procurement. NASA and the Department of Defense function as anchor customers, offering multi-year, fixed-price contracts that de-risk private investment. This model has enabled SpaceX to capture 52% of global launch market share16 —accomplished through a combination of purchase commitments and direct government funding.

The commercial crew and commercial cargo programs exemplify this approach: they procure services at multi-billion-dollar scales, creating predictable demand that attracts private capital.17 The success of these programs, as well as the ancillary result of Starlink’s billions in revenue, validates the commercial viability of this model, while the Starshield program demonstrates how these capabilities can also be adapted for defence applications.18 With around US$7 billion in annual venture funding19 flowing into the sector and International Traffic in Arms Regulations (ITAR) creating protected market conditions, American companies benefit from rapid iteration cycles and risk tolerance.

Without comparable governmental anchor contracts of between $500 million and $1 billion, Canadian firms remain constrained to tier-two supplier roles within American prime contractor networks—manufacturing components rather than integrated systems.20

China has pursued a contrasting model characterized by centralized planning and state capital deployment, though it has also begun to fund its own commercial players after seeing the success of the U.S. strategy. Between the Guowang and Qiafan constellations, China is planning to launch more than 25,000 satellites.21 These represent more than technical achievements; they constitute sovereign infrastructure investments. Through civil-military fusion doctrine, every capability serves dual-use purposes, while Belt and Road Initiative ground stations from Pakistan to Kenya to Argentina extend China’s space influence globally.22

This approach succeeds through cabinet-level coordination that aligns space development with foreign policy and industrial strategy. Provincial governments compete for space industry clusters, creating internal competition within a unified national framework.

By contrast, Canada’s space activities remain fragmented across the Canadian Space Agency, Innovation, Science and Economic Development Canada, the Department of National Defence, and Global Affairs Canada—each operating with distinct priorities and lacking ways to bundle demand into single orders for demand aggregation. This institutional fragmentation prevents the coordination necessary to focus on strategic priorities and national champions.

Japan, which has increased space funding 10-fold in three years, has evolved from a predominantly civil and science-focused space program to a comprehensive national defence-and-markets focused initiative. This transformation materialized through the expansion of defence space spending for the Space Strategy Fund, from its initial ¥300 billion (US$1.93 billion), to ¥1 trillion (US$6.5 billion) over ten years.23

This transformation resulted from reconceptualizing space as essential to national security. Japan’s keiretsu corporate structures facilitate this approach through crossholdings that provide patient capital insulated from short-term market pressures. Government-backed institutions including the Innovation Network Corporation of Japan (INCJ) and the Development Bank of Japan (DBJ) provide strategic financing where private markets fall short.

Germany has been undergoing a major shift through defence prioritization, adding a historic US$40 billion in military space capabilities by 2030—including unprecedented consideration of offensive counter-space systems.24 Germany already had a strong platform, being among the European Space Agency’s largest contributors, at €3.5 billion (US$4 billion) over three years.25 It also ranks third globally in space patents26 and hosts over 120 space start-ups.27 In 2022, German SpaceTech startups generated over €120 million in revenue across 16 deals.28

Germany’s regulatory evolution on space, while delayed, also shows pragmatic progress. As an example, in September 2024 Germany published key points for a future German Space Act. One part is a proposed €50 million liability cap with 10% revenue-based recourse limitations29 that could potentially provide more favorable terms for investment. This measured approach—balancing commercial enablement with public protection—offered a template for nations seeking to stimulate private investment without assuming unlimited liability. Note, it is possible that the EU draft Space Regulation (2025)30 will take priority and does not include a specific liability cap. In either case, Germany’s ability to maintain world-leading capabilities in synthetic aperture radar, optical systems, and small satellite technology, while working through regulatory complexity both internally and in the EU, proves that perfect institutional conditions need not be prerequisites for technical leadership.

For Canada, Germany offers one of the most relevant models: a G7 nation with federal complexity, strong technical capabilities, and allied commitments that must balance sovereignty with collaboration.

How others are picking up the pace in space

These brief profiles capture the high-level aspects of the space strategies of the UK, South Korea, New Zealand, Norway, UAE, and Australia.

Goal: Brexit-driven strategic autonomy in critical technologies

Strengths: Public capital unlocks private markets. Defence Space Strategy provides framework. UKSA-DSIT integration recognizes space-digital convergence

Assets: OneWeb stake (now Eutelsat). Harwell Space Cluster. Strong satellite manufacturing base

Budget: US$765M public investment catalyzed a US$2.89B space economy boost (3.8x multiplier)31

Key method: Strategic public investments and long-term strategy unlock private capital. Banking conservatism and ESG requirements can create constraints but this significant multiplier demonstrates good success

Lesson for Canada: Comparable Commonwealth economy demonstrates public investment can achieve significant leverage when tied to strategic imperatives like Arctic sovereignty.

Goal: Achieve launch independence through sustained development.

Strengths: Chaebol structure absorbs early losses. Political commitment survives failures. Methodical capability building over two decades.

Assets: KSLV-II (Nuri) operational launcher.32 Naro Space Center. 425 Project.33 Samsung and Hanwha industrial integration. Korea Aerospace Research Institute (KARI).

Budget: US$670M, with US$560M directed at R&D projects.34 Sustained funding through multiple administrations despite technical setbacks.

Key method: 20-year progression: sounding rockets → military35 and commercial36 satellites → launch vehicle. Each failure treated as learning investment not political liability.

Lesson for Canada: We possess everything South Korea spent 20 years building. Difference lies in sustained commitment and commitment to sovereign launch, now recently rectified.

Goal: Dominate responsive small satellite launch market.

Strengths: Regulatory innovation enables rapid iteration. Geographic isolation becomes launch advantage. Private sector leadership with government support.

Assets: Rocket Lab: 70+ launches, 2nd most frequent U.S. launcher. Mahia Peninsula private range. 120 launch opportunities/year. U.S. corporate structure.

Budget: US$59M in public spending, US$1.52B space sector revenue (2024).37 Minimal government investment, high private return

Key method: Special use airspace, streamlined licensing. <2-month contract-to-launch capability.38 First to use 3D printing and electric turbopumps to reduce costs.39

Lesson for Canada: Small nation can dominate global niche through regulatory agility and geographic advantage, and most importantly backing and building off the success of a single, world-leading space entrepreneur. Focus beats breadth.

Goal: Become Europe’s gateway to polar and SSO orbits.

Strengths: Arctic location optimal for high-value orbits. First operational continental European spaceport. Strong allied integration.

Assets: Andøya Spaceport operational. Isar Aerospace 20-year anchor tenant. U.S. Technology Safeguards Agreement. Arctic Satellite Broadband Mission with U.S. payloads.

Budget: US$208M40. US$36K spaceport investment.41 Additional US$20K for defence allocation.42

Key method: 18-month construction for the spaceport.43 German commercial anchor + U.S. military integration.44 30 launches/year capacity at full operation.45

Lesson for Canada: Arctic geography becomes strategic asset through infrastructure investment and allied partnerships. Execution beats deliberation.

Goal: High-value tech transfer and inspiration through prestige projects.

Strengths: Significant capital compresses development timelines. Every tech transfer includes mandatory training. Global talent acquisition at premium rates.

Assets: Hope Mars probe (2020). Mohammed bin Rashid Space Centre. KhalifaSat Earth observation. Partnerships with NASA, JAXA, Roscosmos.

Budget: US$443M in civil space investment. Silicon Valley salaries for global talent. Backing from the US$820M sovereign wealth fund.46

Key method:  Buy proven technology, build local capability. Prestige generates foreign investment and regional leadership.47 Now leveraged into domestic start-ups and space investment holdings.

Lesson for Canada: Rapid influxes of targeted capital on major, visible projects can result in meaningful tech transfer and national inspiration.

Goal: Leverage Southern Hemisphere position for Indo-Pacific leadership.

Strengths: Late entry avoids legacy constraints. AUKUS provides technology access. Geographic advantage for polar orbits and regional coverage.

Assets: Australian Space Agency (2018). Multiple launch site developments. Deep Space Communication Complex. SmartSat CRC.

Budget: US$25M (2024), with US$135M over 5 years (2023-2028).48 US$840M Modern Manufacturing Initiative includes a US$101M Australian Space Manufacturing Network.50 Additional defence space investments.

Key method: Focus on mining, agriculture, maritime applications. Allied integration through AUKUS.

Lesson for Canada: Partnerships with the U.S. and integration into strategic domains provides technology transfer and co-investment opportunities. As in the Indo-Pacific, so it can be in the Arctic.

We’re the country that sent a skylark to sing in space, built the arm that assembled humanity’s orbital outpost, and created the radar that sees through Arctic darkness.

1962
The skylark takes flight
1981
The arm that built the future
1995
The all-seeing eye
2025
The inheritance test
September 29, Vandenberg Air Force Base: Thor-Agena rocket carries 145kg of Canadian built satellite into orbitNovember 13, Space Shuttle Columbia: Canadarm unfurls above Earth, Canada wordmark blazingRADARSAT-1 launches: Canada’s synthetic aperture radar pierces clouds, darkness, Arctic storms60 years of excellence meets venture capital reality
Alouette 1 makes Canada the third nation in spaceThe impossible made routine: Many doubted a 6-degree freedom robotic arm couldn’t work in spaceGeography as destiny: Built for a country that’s half winter, all vast, mostly invisible from spaceBrain drain accelerates: Our roboticists design for Silicon Valley, our radar experts optimize for Arlington
Named for a French-Canadian folk song about a skylark, because even our satellites have culture410kg on Earth, but in orbit it juggled 100-tonne payloads with centimeter precision72-hour promise: Any corner of Canada mapped within three days, Arctic covered dailyCapital gap becomes critical: Technical excellence without financial fuel
The miracle: Built by a DND team when transistors were “just in their infancy” with “no textbooks and virtually nothing” to guide themThe nuclear connection: Born from CANDU reactor robots—Canadian ingenuity repurposed for the cosmos17-year marathon: Planned for 5 years, operated for 17. Another Canadian overachieverBudget commitment to domestic launch – need to rise to meet the moment
Designed for 1 year. Sang for 10. The little satellite that could—and didPerfect record: 90 missions, 5 shuttles, built the ISS, fixed Hubble. Zero failures.The crossroads question: Sovereign space power or sophisticated supplier
Canadian space sector activity - proportion of revenues by percentage

The following companies collectively employ more than 10,000 Canadians and generate more than $5 billion in annual revenue, with export rates exceeding 80%. They also demonstrate that Canada possesses the technical capability, manufacturing excellence, and commercial acumen to compete globally. What they lack is the scale of capitalization and anchor contracts their international competitors enjoy. With the proposed $12 billion capital injection by 2025 and defense spending increases tied to Canada’s new NATO commitment, these space firms could grow from successful niche players to global champions—creating the ecosystem that attracts and retains the next generation of space companies.51

  • Member of Canada’s fastest growing companies list, three years running

  • Built Canadarm, Canadarm2, and Dextre and now Canadarm3—establishing Canada’s robotics legacy

  • RADARSAT prime contractor, leading synthetic aperture radar technology

  • Developer of MDA Aurora, the world’s leading commercial Low Earth Orbit (LEO) digital communications satellite

  • Over 3,800 employees

  • Strategic relevance: Largest space company in Canada with a proven ability to execute complex programs and compete globally

  • Founded 2015, raised more than US$300 million in venture funding

  • Launching 10 optical data relay satellites in January 2026, building on the flight heritage of 23 previously deployed satellites, designed for compatibility with the U.S. Space Development Agency’s optical communications standards

  • First commercial company to demonstrate inter-satellite links in LEO

  • More than 175 employees

  • Strategic relevance: Kepler leads optical data relay technology globally and provides real-time connectivity, advanced on-orbit compute, and hosted payload services for mission-critical data

  • Developed Spacefarer™ platform used by NASA, and commercial operators

  • Delivered mission critical hardware and software for lunar rovers to customers on three continents

  • Launched Mission Persistence with SpaceX in June, Canada’s Giant Leap for AI in Space

  • Leaders in deploying AI at the edge, on the spacecraft itself, including for wildfire detection

  • Raised over $22 million in equity and non-dilutive funding

  • 35+ employees with deep space operations expertise

  • Strategic relevance: Software and operations expertise critical for managing complex constellation and lunar missions

  • Developing Spaceport Nova Scotia, located near Canso, which is designed as a multi-user, multi-mission launch complex

  • Active partnerships with small- and medium-lift launch providers for suborbital missions and ongoing discussions with Canadian and international orbital launch companies

  • Signed a U.S. Technology Safeguards Agreement, enabling U.S. launch providers and spacecraft partners to operate at the site using controlled American technologies

  • MDA Space made a $10 million strategic investment becoming an operational partner

  • The Company received a $10 million loan from Export Development Canada tosupport site development, launch pad completion, and operational readiness

  • Competitive access to polar and sun-synchronous orbits, offering inclinations from 45.1 to 90 degrees and safe downrange corridors over the Atlantic

  • Strategic relevance: Positions Canada to become a launch-enabled nation, capable of deploying and replenishing satellites from its own soil

  • Third-largest landing gear company globally; $800 million in revenue

  • 2,000 employees across Canada, U.S., UK, and Spain

  • Supplies Boeing, Lockheed Martin, Airbus, and many more OEMs

  • Export sales represent 90% of revenue

  • Strategic relevance: Precision manufacturing and systems integration capabilities directly applicable to spacecraft programs

  • Specializes in planetary exploration missions and systems, lunar rovers, science instruments, cameras, and lunar greenhouses

  • Developing LRM lunar rover for CSA and multiple lunar utility vehicles for NASA Artemis program and commercial customers

  • Leading the development of lunar greenhouses to produce food for astronauts on the Moon. Working with CSA, DLR, and NASA

  • Produce and sell computers, power systems, and cameras for lunar missions. Over 20 cameras now on lunar surface and another 200 currently in production, 100 of which are already ordered for various international lunar missions

  • Strategic relevance: Next-generation space robotics extending Canada’s legacy into lunar economy

  • Developing Canada’s first end-to-end responsive space launch system with vertically integrated capabilities

  • Tundra rocket (500 kg to LEO by 2028) and scales to Titan rocket (5,000 kg to LEO by 2032), designed as Canada’s first sovereign orbital launch vehicles

  • Building Atlantic Spaceport Complex (ASX) in Newfoundland & Labrador with operations starting in 2025

  • Manufacturing 3D-printed Hadfield & Garneau liquid rocket engines using Jet-A/SAF and LOx propellants

  • Terra-Nova satellite launching 2026 featuring NVIDIA GPU powered edge-AI for wildfire detection and wild field of view (WFOV) space domain awareness (SDA)

  • Strategic relevance: Dual-use SHARP defence program developing hypersonic capabilities and high-altitude missions for Arctic sovereignty using same hardware from Tundra rocket and engines

  • Leader in dedicated orbital launch services, rapid replenishment, and reconstitution of satellite constellations, with patented propulsion technology that simplifies propulsion architecture to ~12 parts compared to ~15K

  • $38M+ in total funding, including a $14M Series A (June 2025) and $10M grant from the Government of Quebec (June 2025)

  • Aiming for maiden suborbital launch in winter 2026; Aurora-8 launch vehicle targets the growing market of small satellites

  • Targeting first orbital launch attempt via pathfinder launch agreement with Maritime Launch Services to launch from Spaceport Nova Scotia in Q3 2028

  • Awarded €300K ($482K CAD) in NATO DIANA Phase II and awarded $776K from CSA SDTP for microthruster demonstration

  • Strategic relevance: Advances Canada’s sovereign launch capability and positions the country in the emerging suborbital and small-satellite launch markets

  • Founded in 1969, now one of the world’s largest satellite operators

  • Telesat Lightspeed LEO constellation: $6.5B investment for 198 satellites

  • Global broadband coverage with focus on enterprise, government, and mobility markets

  • Competing directly with SpaceX Starlink and Amazon Kuiper

  • ~750 employees

  • Strategic relevance: Demonstrates Canada’s ability to deploy capital for mega-constellations, critical for digital sovereignt

Canada needs to turn its pockets of space excellence into key pillars of a new global strategy. And the renewed focus on defence spending can be the launch pad. Defence spending currently represents 29% of Canada’s space spending and is poised to grow significantly as NATO commitments scale.52 This isn’t just budget reallocation; it’s a fundamental market transformation. Defence-driven procurement can facilitate anchor contracts and multi-year revenue certainty, which can help unlock private capital and enable Canadian space companies to achieve commercial scale.

Target capability by 2035: Strengthen our domestic space industrial base with a focus on sovereign launch capabilities and critical components where Canada has existing strengths.

Private capital, especially in the U.S. and Europe, has created a new generation of space companies. For example, deal flow in the U.S. space industry has more than doubled over the past decade and the value of those deals rose nearly four-fold.53 In the wider space industry, nearly US$50 billion flowed into space companies since 2015,54 growing on average 21% per year,55 with venture capital driving much of the action. The UK has become the second most attractive destination for space capital, as it has received 17% of this inflow.56 The industry is experiencing growth not seen since the Cold War space race, and dual-use and commercial capabilities are driving it.

In this global space race, Canada has many strengths but also some critical gaps. We have strong satellite manufacturing capacity, solid component production, but also fragmented supply chains and no domestic ability to get our own satellites to orbit. Canada is also under-equipped when it comes to testing facilities and national research centres. Decades of underinvestment in national space capabilities relative to our peers is starting to show. This industrial gap fundamentally limits our strategic autonomy and economic potential in a sector growing at 9% annually.57

New federal budget commitments will help, especially with the allocation of $182.6 million over three years for sovereign space launch capability.58 That’s a good start. But industrial competitiveness requires more to build a value chain: new ambitious missions and capabilities, advanced satellite and component manufacturing facilities, testing and validation centres, ground systems infrastructure, and perhaps two operational spaceports in the years ahead—NordSpace’s Atlantic Spaceport Complex and Maritime Launch’s Spaceport Nova Scotia.

The potential for economic transformation is proven. NASA’s shift from “build and own” to “buy and use” didn’t just reduce launch costs; it catalyzed an entire commercial space industry. The U.S. increased objects launched into outer space from 29 in 2011 to more than 2,200 in 202459 by empowering and buying national services from space entrepreneurs, and nurturing domestic manufacturing, supply chains, and service providers.

Modern space economics favour this comprehensive approach. The evolution of satellite technology shows dramatic cost changes. Commercial communications satellites in the 1990s cost $350-950 million (in today’s dollars), and can now be deployed for $150-500 million,60 with new small GEO satellites available for as low as $15 million.61 The transformation in small satellites has been even more remarkable: universities and emerging nations can now build and launch CubeSats as low as $150,000 total, compared to traditional satellites costing hundreds of times more.62 63

A robust industrial base that is increasingly funded through defence space spending could deliver defensive outcomes comparable to more naval destroyers or F-35s—but with far greater domestic economic multipliers through dual-use applications in communications, Earth observation, and climate monitoring.

2024 Space spending spilt for Canada between Civil and Defence

Annual capability by 2035: NATO-leading Arctic communications, positioning, surveillance systems; counter-space capabilities for deterrence

Space has fundamentally changed how nations project economic and military power. Advanced militaries now depend on satellites for communications, reconnaissance satellites gather intelligence and identify targets, and PNT constellations (including GPS) guide everything from precision munitions to drones.

Beyond these tactical capabilities, space remains central to strategic security. Early-warning systems that detect nuclear missile launches rely heavily on space-based assets. Starlink’s role in Ukraine grabbed headlines, but that’s just the beginning of how space systems are reshaping national defence.

At the same time, counter-space capabilities are proliferating rapidly. The U.S., Russia, China, and India have all destroyed their own satellites to demonstrate anti-satellite missiles.64 China and the U.S. are building extensive counter-space arsenals, including satellite proximity operations and refueling infrastructure. Russia has shown it can launch nuclear weapons into orbit that could wipe out most low-Earth orbit satellites with an electromagnetic pulse.65 The consensus is clear: any conflict between major powers will likely start with moves in space.

Canada needs advanced space capabilities for battlefield communications, intelligence gathering, target detection, and space control—including counter-space systems—if it wants to maintain sovereignty and deter adversaries. Our NATO and Five Eyes partners naturally expect us to take the lead on Arctic defence, where space systems are particularly critical given the massive territory and sparse population. Emerging Canadian firms like Dominion Dynamics are beginning to develop these critical capabilities domestically for Arctic sensing. Geography gives Canada a unique advantage: positioned far from potential conflict zones in Europe and the Indo-Pacific, we can contribute space assets to allied operations more effectively than ground, naval, or air forces.

With our small population and vast territory, staying tight with our “Five Eyes” – an alliance between Australia, Canada, New Zealand, the United Kingdom and U.S. – to share intelligence remains our best security strategy. Joining initiatives like the Golden Dome proposed by the US could strengthen these ties. The U.S.-led space-based missile defence architecture would integrate allied capabilities into a unified shield against hypersonic and ballistic threats. For Canada, participation could mean more than simply enhanced protection—it positions us as an essential partner in continental defence, potentially securing industrial participation and technology transfer for Canadian firms and ensuring our voice shapes the future of North American security architecture and supports broader Five Eyes capabilities.

Defence investments that fund new technology development consistently boost R&D spending and drive economic growth, as defence innovations built can often find commercial applications. But this economic spillover only works when we develop capabilities domestically rather than buying foreign systems. Canada needs to source from and co-develop with Canadian companies, structuring deals so these firms can scale domestically then globally. The U.S. has built massive companies this way—SpaceX ($350B+), Palantir ($330B), and Anduril ($30B)—through strategic national security contracts.

Annual capability by 2035: Quantum-secured satellite communications networks; sovereign positioning, navigation, and timing systems

Over the next decade, nations will secure economic and strategic advantage through technology. And three converging megatrends will reshape global power dynamics: the exponential growth of data as a strategic asset, the vulnerability of current encryption to quantum computing, and the critical dependence of commerce on satellite infrastructure. Nations that control secure satellite communications will hold the keys to digital sovereignty—those without independent capabilities will face strategic constraints.

Consider the scale of satellite dependence today. Maritime shipping, which moves more than $14 trillion in goods annually,66 depends entirely on satellite positioning and timing.67 Financial markets rely on GPS timing for transaction synchronization—an outage costs approximately $1 billion per day to the U.S. economy.68 The positioning, navigation, and timing services sector generated around US$280 billion in downstream revenues globally in 2023 from devices and services.69

The technological landscape of 2030 will be unrecognizable from 2020. As AI models become commoditized and universally available, competitive advantage will shift from algorithms to proprietary datasets. The companies and nations that can securely collect, transmit, and process unique data streams will dominate. Satellite constellations provide these unique vantage points—monitoring global supply chains, tracking economic activity, enabling autonomous systems—but only if that data can be secured.

Quantum computing presents both an existential threat and transformative opportunity. Current encryption methods protecting satellite communications, financial transactions, and military data will be vulnerable to quantum decryption within this decade. China has already demonstrated quantum satellite communications with their Micius satellite.70 The nation that deploys quantum-secured satellite networks first won’t just protect their own communications—they’ll become the trusted provider for allies seeking protection.

Meanwhile, the AI revolution demands unprecedented data transmission capacity and security. Training next-generation AI models requires massive datasets often collected from satellite imagery, IoT networks, and global sensors. The Smart Cities market encompassing these technologies is projected to reach US$1.4 to US$4 trillion by 2030,71 72 much of it dependent on secure satellite connectivity for IoT infrastructure. Control of secure satellite infrastructure is also likely essential for what many are calling sovereign AI.

Every Canadian AI company training models on proprietary data faces choices about data routing and storage. Our innovation ecosystem’s competitiveness depends partly on secure infrastructure that enables protection of intellectual property while maintaining global connectivity.

Canada’s position presents both opportunities and vulnerabilities. Our reliance on allied satellite infrastructure—while beneficial for interoperability and cost-sharing—creates potential single points of failure. It is wise to ensure resilience through diversification.

In scenarios of system degradation—whether from solar events, cyber attacks, or infrastructure failures—Canada needs assured access to positioning, navigation, and timing services. Our banks, power grids, and transportation networks all depend on precise timing signals. The economic risk compounds as Canadian companies in resource extraction, financial services, and advanced manufacturing transmit sensitive data through satellite infrastructure without sovereign alternatives. Additionally, a three-year study conducted by researchers at UC San Diego and the University of Maryland found that roughly half of geostationary satellite signals are transmitting sensitive data completely unencrypted, making them vulnerable to interception with basic equipment.73

Canada possesses unique advantages to become a global leader in secure satellite communications. Our quantum research leadership—through institutions like the Quantum Valley ecosystem in Waterloo, the $360 million National Quantum Strategy, and the additional $334.3 million announced in Budget 202574 75 combined with leading quantum companies like Xanadu, Photonic, and NordQuantique, position us to develop quantum-secured satellite networks ahead of most nations. Combined with our intentions on Arctic sovereignty, NATO obligations, and trusted middle power status, Canada has both capability and market opportunity.

The economic case is compelling. Telesat’s $6 billion Lightspeed constellation76 demonstrates private sector confidence in Canada’s ability to compete globally in satellite communications. Adding quantum security creates differentiation for nations seeking trusted alternatives—not to replace existing partnerships but to ensure resilience through diversity. With focused investment, Canada could build quantum-secured satellite infrastructure serving both domestic needs and allied nations seeking additional secure communications options.

Annual capability by 2035: World-leading research programs in strategic domains; 100+ annual student projects; 2-3 breakthrough technology demonstrations annually

When it comes to space research, nations are no longer competing for scientific prestige but for control of technologies that will define economic and strategic power. China is targeting a space-based solar power demonstration by 2035.77 The U.S. is pursuing nuclear propulsion for Mars missions.78 Japan is developing a lunar RV while offering quarterly ISS deployment opportunities that have enabled over 200 satellite deployments since 2012.79 These aren’t science projects—they’re strategic investments in future market dominance.

Canada’s research strengths uniquely position us for space technology leadership, but only if deployed strategically. Three Canadian quantum companies—Nord Quantique, Xanadu, and Photonic—advanced to DARPA’s Quantum Benchmarking Initiative finals, competing for US$316 million.80 The federal budget’s $334 million quantum investment provides capital to secure these headquarters in Canada.81 Our materials science and robotics expertise, hardened through Arctic operations, directly translates to lunar environments. Our mining sector is well-poised to extract critical minerals, and it is one of the strongest in the world. Our nuclear industry has CANDU reactor experience that could be applicable to space power systems.

Success requires fundamental shifts in how Canada approaches space R&D. Japan’s model of regular deployment opportunities reduces the gap between prototype and product. When investors know technologies can be validated within months rather than years, capital flows to innovative companies. Canada could establish similar quarterly launch opportunities, transforming research projects from academic exercises into commercial pipelines.

The implementation pathway is clear: commercial partnerships from day one, with industry co-investment in research programs. Mechanisms ensuring breakthrough IP remains in Canada. Structured programs that connect student projects to space missions could be a great start. Most critically, acceptance that moonshots require multiple attempts and a commitment to preparing both the public and politicians to accept some failures as part of the process of innovation and growth.

The economic case is compelling. When NASA commits to purchasing orbital and lunar delivery services, companies raise billions in private capital. When DoD funds quantum communications, startups achieve unicorn valuations. Canada can replicate this model with government as first customer, not final customer, creating markets that attract private investment.

The opportunity window may be narrowing. As space commercialization accelerates and the owners of platform technologies emerge, first movers will establish dominant positions. Canada has proven it can produce world-leading research. The next decade will determine whether we capture the value of our innovations or continue subsidizing competitors’ success.

Annual capability by 2035: AI-integrated Earth observation systems; operational climate monitoring for Canadian territory

Canada’s unprecedented 2023 wildfire season—burning 16.5 million hectares, seven times the historical average—demonstrates why climate monitoring has become economic infrastructure. The fires cost over $1 billion in suppression efforts across four provinces, contributing to $945 million in total insured weather losses.83 This crisis creates market opportunity: the global Earth observation sector will grow from $5 billion today to $8 billion by 2033,84 driven by nations requiring the same wildfire prediction, flood monitoring, and agricultural intelligence that Canada must develop for survival.

Space-based monitoring is an operational necessity. Twenty-six of 54 essential climate variables can only be measured from space.85 86 Canada’s unique geography—vast boreal forests, Arctic territories, prairie agricultural systems—creates monitoring challenges that, once solved, become exportable products for nations facing similar environmental pressures.

Canada’s Earth observation heritage provides a strong foundation. Earth observation represents 20-per-cent of Canada’s space expenditures (the second largest driver after satellite communications). RADARSAT’s synthetic aperture radar heritage made Canada a world leader in Earth observation—an advantage that evolved from defence requirements but found commercial markets in resource management, disaster response, and environmental monitoring. Start-ups like SkyWatch and GHGSat are also finding ways to derive and create value from earth observation products, as well as international customers.

Canada’s current Earth observation strategy explicitly recommends developing a dedicated program to “source commercial and international data”87 to complement sovereign capabilities. However, this recommendation was notably absent from the RADARSAT+ funding package announced in 2023.88 Canada could develop and fund a new initiative, analogous to NASA’s Commercial SmallSat Data Acquisition program, that focuses specifically on acquiring, evaluating, and integrating commercial and international Earth Observation data. Canada could also build off of NASA’s Earth Information Center initiative and work towards a national Climate Resilience Design Centre, enabled by space-data and AI.

AI could transform Earth observation from static imagery to predictive intelligence. Canada could build a world-leading Earth digital twin. It could enable algorithms to identify patterns that are harder for human analysts to discern. That could include early indicators of crop failure, illegal resource extraction, maritime trafficking, or military movements. This AI-driven Earth observation creates commercial export opportunities—data products and analytics services that allied governments, resource companies, and agricultural operations will pay for. Dual-use optimization is powerful. The same satellites that monitor wildfires and agricultural conditions can also provide military intelligence, border surveillance, and maritime domain awareness.

Canada could capture an estimated $21 billion of the global space market annually by 2035, creating new jobs and transforming our economy. Or we could watch from the ground as others claim the high frontier. The difference comes down to approximately $12 billion in capital investment and the political will to deploy it–and soon.

The are several strategic unlocks that Canada’s leaders could consider:

  • Canada’s space governance remains fragmented across multiple departments with no single point of accountability, deterring the private investment needed to scale the sector. One option is to have the National Space Council report directly to a senior minister or Clerk of the Privy Council, granting them authority to coordinate all federal space spending. This creates the focused leadership that capital markets require—mirroring how Japan’s Prime Minister provides oversight over the country’s national space agency.

  • NovaSpace, a global consultancy firm, diagnosed our core failure: we create “technology orphans”—innovations that win small government grants, then die without major customers.89 The Department of National Defence could break this cycle by committing to become a significant customer of Canadian space innovations and services and providing world-leading space defence capabilities for ourselves and for our allies in the process.

  • It is hard for companies to raise capital against one-time contracts, which is what Canada often offers. The Canadian Space Agency could address this by shifting from buying hardware to purchasing services, replicating NASA’s success, as outlined above. At the early stages, this could be similar to the US SBIR program (which Budget 2025 may create a version of, through ISED).90 Phased contracts would take companies from $200,000 feasibility studies through $1.5-million development contracts, on a pathway to commercialization towards $50-million deals, creating a proven pathway from innovation to market.

  • Canadian space companies also face challenges in “de-banking” for defence-related work and the country has venture funds that are often too small to scale champions. To navigate this, Export Development Canada (EDC) could consider establishing a dedicated Space Finance Division with expanded lending capacity, while Finance Canada could classify space as “strategic infrastructure” to unlock pension fund investment. EDC could also consider guaranteeing 80% of commercial loans, like how it did through BCAP during the pandemic. This could mobilize the billions needed to build Canadian champions.

  • Canada’s space exports grew 13% from 2020 to 2023, proving international appetite exists. Fast-tracking agreements with Five Eyes and NATO partners, combined with a dedicated Space Export Division within Global Affairs, could help position Canada as a trusted non-American option for nations seeking alternatives to U.S.-China dependency. An “Allied Space Preferred Partner” designation could also expedite approvals.

  • More than 40 universities and research centres participate in the Canadian space sector, and this is a strength that can be built on.91 At the same time, in the context of talent, Canada is facing significant challenges. The major reduction of international students may reduce our talent pipeline, and many of our traditional sectors including automotive are struggling amidst the trade war. Opportunities to unlock talent could include industrial retraining programs into the space and defence sectors, especially from hard hit areas of our economy. One opportunity is a U15-led, business-academia approach to space-driven technologies for earth science and climate resilience, including wildfire detection and management—something that can exported to NATO allies for dual use purposes. Further, national regulatory sandboxes and multi-year federally funded university space research institutes partnered with the CSA and DND that link space and defence procurement with post-secondary institutions and industry partners could create pre-qualified talent pipelines and accelerate security clearances.  

These unlocks—unified leadership, procurement modernization, capital market activation, export market development, and talent mobilization—are interdependent. Success requires simultaneous progress across all dimensions. International precedents, particularly NASA’s commercial programs and the UK’s space investment strategy, demonstrate that government market-making can catalyze private sector growth.

But the window is narrowing. First-mover advantages in quantum communications, Arctic surveillance, and other emerging space technologies have expiration dates measured in months and years, not decades. Furthur delay risks permanent relegation to consumer and tier-two status rather than being a producer and leader in the global space economy.

The path forward requires coordinated action across government, industry, and capital markets. Without executive-level leadership and the structural reforms outlined, Canada risks missing a generational opportunity.

At a time when we’re aiming east, west and north, instead of south, Canada also needs to look up—and aim higher, quite literally, with an ambitious space strategy.

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Methodology

Data on the Canadian space economy is limited. The Canadian Space Agency (CSA) publishes an annual State of the Canadian Space Sector Report, including revenue, gross domestic product, employment and exports. Company-level data is available for publicly traded firms. Our method blended data from both sources to model sales revenue, GDP and capital expenditure across ‘baseline’ and ‘ambition’ growth scenarios. The calculations were made through a series of steps.

  • To forecast sales revenue and GDP to 2035 in the ‘baseline’ scenario, we derived the longest possible compound annual historical growth rate using CSA data (2014-2022), which we assume will govern the future growth of sales revenue (-0.8%) and GDP (1%) going forward.

  • To forecast sales revenue under the ‘ambition’ scenario, we assume Canada doubles its global market share by 2035, rising from ~1.1% of the global market in 2022 to 2% by 2035. In partnership with McKinsey & Company, the World Economic Forum projects the global space market ‘backbone’ applications (such as satellite, launchers, broadcast television, and GPS) will grow to US$755 billion by 2035,92 putting Canada’s share at $21 billion. This ambition scenario thus sees the space market grow 4x in 10 years.

  • To infer the capital required under a baseline and an ambitious scenario, we used data for publicly traded space firms. From 2020-2024, Canada’s publicly traded space firms had a capex-to-revenue ratio of 36% (on a weighted average basis). That figure was skewed by heavy investments from a few key firms that are unlikely to be repeated in the future, even under the ambition growth scenario. To better anchor the capex-to-revenue ratio, we included a few mature aerospace companies, which have much lower capital requirements. On a weighted-average basis, this brought the capex-to-revenue ratio down to ~10%.

  • Across the baseline and ambition scenarios, we multiplied annual sales revenue by 10% to determine the annual capex, aggregating the figures over 2025-2035 to determine the total capital required.

Canada is about to make historic investments to reorient the economy. The scale and focus of these investments should serve as a wakeup call to anyone working in Canadian postsecondary education or relevant provincial ministries—signaling both opportunity and necessity for change.

The upcoming federal budget is expected to allocate billions for nation-building initiatives like modernizing defence and space infrastructure, expanding computing capacity, and developing renewable energy. The potential rewards–sovereignty, growth and competitiveness–are great. As is the risk. We are hedging our bets on talent and innovation.

But as we laid out in our recent report, Testing Times, the postsecondary sector is facing a crisis. Just as Canada is ramping up, colleges and universities are scaling down–closing programs, departments and campuses. Postsecondary institutions across the country need to modernize and re-align their mandates for growth–as outlined in A Smarter Path—but they lack the financial footing, flexibility and connectivity with industry to do so. 

This was the context in which RBC Thought Leadership and our partners at the Business + Higher Education Roundtable convened a summit on Talent, Technology, and a New Economic Order. In September, about 60 industry and postsecondary leaders came together at RBC’s head offices with a shared interest: ensuring Canada’s historic investments yield historic rewards. We focused on three areas of national ambition that depend heavily on postsecondary for talent and innovation:

  • Defence and space capabilities

  • AI and digital technology

  • Major energy projects

The following summarizes the imperatives, opportunities and bold ideas that were discussed.

Today’s threats to sovereignty and security are not the ones that Hollywood war films call to mind. They are increasingly complex and defending against them requires economic and digital strength—and not just on earth. National security and prosperity are increasingly dependent on space infrastructure like satellites, which Canadians use for everything from surveillance and environmental monitoring (some key climate change variables are only measurable from space1) to daily communication and navigation.

But Canada’s capabilities in space, and in defence more broadly, are falling behind global competitors. Government procurement contracts—critical for maintaining and advancing capability and innovation—take significantly more time than comparable procurements in other jurisdictions. Our commercialization of space products and services trails other countries. And years of underspending has hurt Canadian defence capacity, with acute personnel shortages spanning the armed forces; trades and technician roles are particularly understaffed, as are engineers, including specialists in naval combat and aerospace.2

Spending commitments for defence and space provide a historic opportunity.

  • Canada is spending $9 billion on defence in 2025–2026, including $2.6 billion for recruitment and retention, and has pledged to raise defence spending to 5% of GDP annually by 2035.

    • In addition to building conventional defence capabilities, this is an opportunity for Canada to innovate and advance new technologies for purposes like surveillance and forecasting.

    • We can also lean into existing strengths. For example, Canada is already ahead in developing wildfire monitoring capability (microsatellites) that can be used to track fire activity and inform management efforts at home and internationally.3 In addition to threatening lives and livelihoods, wildfires can destroy critical infrastructure like communication systems and energy grids and cause political instability — our ability to respond quickly is an important part of a national defence strategy. 

  • The federal commitment to establish a Bureau of Research Engineering and Advanced Leadership in Innovation and Science (BOREALIS) is an opportunity to invite industry and postsecondary partners to quickly advance dual-use technology (defence and other civilian applications).

Three ideas from the summit that would give Canada an edge in defence and space:

  • Position Canada as NATO’s firefighting nation

    • Use a portion of new defence spending to grow earth observation capabilities, AI-enabled disaster response and drone technologies for wildfire management.

  • Build BOREALIS to match models like DARPA and ARIA

    • Both the Advance Research and Invention Agency (ARIA) in the U.K. and the Defence Advanced Research Projects Agency (DARPA) in the U.S. fund high-risk, high-reward projects, free from political constraints and academic processes.

  • Retrain automotive workers for shipbuilding and space sectors

    • Design new competency-based postsecondary programs that let experienced workers with relevant skills move through programs quickly–saving time and money–on their way to an industry-recognized credential.

Companies and organizations around the world are adopting AI to achieve productivity gains and become more efficient. Canadians are moving slowly by comparison. Despite being home to a concentration of the world’s top AI researchers and foundational AI models, when it comes to AI maturity, about 70% of Canadian companies are “crawling” or “walking,” and few (7%) are “running” —less than half the proportion of runners globally (17%) .4

Our top talent tends to move abroad, as do their ideas (most AI patents developed in Canada are owned by foreign entities5). And Canadians are less confident leveraging AI tools to boost productivity at work than our global peers.6

Government commitments and initiatives are opportunities to drive progress.

  • Defence funding could help drive postsecondary-industry collaboration on AI research and innovation (to commercialize dual-use AI, for example).

  • In the days following the summit, the Minister of Artificial Intelligence and Digital Innovation Evan Solomon announced a new AI Strategy Task Force of Canadian researchers, entrepreneurs and industry partners charged with developing a federal AI Strategy. The strategy will include “actionable insights and recommendations” to drive leadership in areas including education and skills, as well as commercialization.7

Now is the time to invest in home-grown innovation and quickly scale up and retain AI skills to capitalize on our advantage. Here are three ideas from the summit:

  • Buy Canadian technology first

    • Canadians–businesses, postsecondary, governments– should be the first customers for our own innovators, rather than wait for U.S. market validation.

  • Allocate more corporate resources for staff training

    • Employer-sponsored training in Canada lags international peers8 –our top 100 companies, based on market cap, should increase corporate training budgets and partner with postsecondary providers to deliver AI upskilling that develops internal capacity for productivity and growth.

  • Teach AI skills across postsecondary disciplines

    • Canadian colleges and universities should ensure students, no matter the program, develop AI literacy skills that they can leverage post-graduation.

Canada faces unprecedented energy demand as we expand computing and space infrastructure and pursue industrial growth. Net-zero policies driving a clean-energy transition place additional pressure on electrification and create demand for critical minerals—key to batteries, solar panels, magnets and wind-turbine motors. And oil and gas will continue to be a critical part of the energy supply mix to help reduce costs for consumers and ensure reliability.

A new Major Projects Office plans to fast-track energy projects to meet rising demands but is up against widespread skills shortages. Older skilled-trades people, for example, are retiring at faster rate than they are being replaced,9 and engineering students are not pursuing mining pathways (mining represents just 1% of engineering enrollments10).

Skills gaps are also an issue. Massive infrastructure projects will only be successful with people who can collaborate and solve problems in real time.

Canada’s nation building agenda creates momentum that postsecondary, industry and governments can use to address skills challenges and meet energy demands:

  • High-profile projects present an opportunity for postsecondary providers and industry to communicate career opportunities in energy sectors.

  • Indigenous populations are growing faster11 than the general population, and are often closer, geographically, to energy projects. Strong partnerships and education strategies that deliver community-based programming can empower community members to take on key roles and fill skills gaps.

  • Canada has delivered on major energy projects before—nuclear refurbishments at the Bruce A Nuclear Generating Station in the early 2010s is a great example.

Three ideas from the summit to capitalize on Canada’s energy momentum:

  • Backstop training for major projects

    • Provincial and federal governments should support human resource strategies and training initiatives, particularly for planned projects that are expected to stall due to a lack of talent.

  • Build an energy skills strategy

    • Major players in the energy industry need to dedicate time and resources to inventorying and projecting skills needs, factoring in evolving technology. They should work with postsecondary providers to design training programs that prepare graduates to hit the ground running.

  • Develop skills in partnership with Indigenous communities

    • Industry and postsecondary institutions should partner with Indigenous communities to design and offer training programs that prepare Indigenous talent for careers in the energy sector.

The path forward will take an urgent and coordinated effort from governments, postsecondary institutions and industry. The world is not standing still. Competitor nations are racing ahead in space exploration and AI adoption, while also investing in skills and infrastructure. Canada has the tools to compete—and lead—but only if we align our systems to meet this moment with urgency and ambition. Summit participants surfaced the following recommendations for governments, postsecondary and industry to take immediate action on.

Federal Government

Leverage the AI strategy for skills: Canada’s new AI strategy should have guidance for postsecondary that supports their modernization, e.g., explicit advice that helps institutions efficiently and effectively develop necessary AI skills (including an understanding of risks and when not to leverage AI) among staff and students, across disciplines.

Build Defence and Energy Workforce Alliances: Canada plans to launch up to five Workforce Alliances “to tackle urgent labour market challenges, drive growth and advance industrial strategies.”12 These should include alliances in defence and energy.

  • Each alliance should bring major employers, unions and postsecondary leaders together to talk supply and demand.

  • Alliances should inventory projects and programs already in place; detail current and projected skill gaps, regionally; consider how skills demands will evolve given new technology; identify and engage appropriate program providers to meet skill needs.

Capitalize on global strength in wildfire management: Use a portion of new defence spending to grow earth observation capabilities, AI-enabled disaster response and drone technologies for wildfire management.

Empower the Defence Investment Agency: This newly announced agency should have the mandate to streamline goals and operational requirements across the Department of National Defence, the Department of Public Works, Public Services and Procurement Canada and other departments, as applicable.

Modernize research and innovation funding: Funding criteria should focus more on outcomes and less on process.

  • Consider a new research and innovation agency, like the Defence Investment Agency, to review and coordinate “tri-agency” funding and other relevant programs–ensuring a balance of funding directed to strategic priorities, and between inquiry–and mission-driven research. Such an agency could lead or support additional changes like:

    • Embracing a model like DARPA with BOREALIS: fund high-risk, high-reward projects, free from political constraints and academic processes. 

    • Reforming the Scientific Research & Experimental Development (SR&ED) tax credit (building on reforms made in 2024) to incentivize commercialization.

    • Revamping and expanding national sandboxes,13 creating more opportunities for collaborations between industry, military, universities and colleges, focused on rapid prototyping and testing new defence and space capabilities.

    • Ensuring any new funding commitments are leveraged strategically. For example, at the summit, the federal government shared plans to fund additional research chairs to attract top American academics to Canada. Funding should be tied to strategic priorities and focus on attracting talent with experience driving mission-driven research projects. New chairs should be expected to help build capacity and act as champions for change in Canadian universities.

Backstop training for major projects: Coordinate with industry and relevant provincial governments to provide immediate financial support for training required to advance major energy projects.

Incentivize talent recruitment and retention: Offer tax credits for global talent needed to fill urgent skill shortages (i.e. energy project managers), and to retain exceptional Canadian graduates (i.e. in technology fields). 

Stabilize annual international student caps: Outline realistic, stable international student targets that enable appropriate population inflows and longer-term institutional planning.

Prioritize Canadian technology: Commit to using Canadian technology, including AI and space-based technologies, unless no domestic supplier offers an appropriate product or service. Prioritize Canadian technology in all future procurements and seek to be an anchor customer for promising Canadian start-ups.

Provincial Governments

Protect postsecondary systems: Increase domestic per-student funding (potentially tied to performance criteria or outcomes) in line with inflation. And/or offer more flexibility for institutions to set tuition, ensuring access is protected with robust government student assistance systems and institutional set-aside programs (that reserve a portion of tuition revenue for financial aid).

Offer strategic direction: Outline modernized expectations for transferable skill development.14 Institutions should develop AI literacy skills and collaboration skills, for example, across disciplines.

Backstop training for major projects: Coordinate with industry and the federal government to provide immediate financial support for training required to advance major energy projects.

Facilitate work-integrated learning partnerships: Consider replicating the U.K.’s Knowledge Transfer Partnerships, a granting program co-funded by industry partners that pairs recent grads with business or community organizations to solve innovation challenges.

Fund innovative pilot projects: Help institutions break the mold and develop competency-based education programs divorced from seat-time, for example, and ensure policy and qualifications frameworks are set up to scale successes.

Prioritize Canadian technology: Commit to using Canadian technology, including AI, unless no domestic supplier offers an appropriate product or service. And prioritize Canadian technology in all future procurements.

Postsecondary Institutions

Meaningfully engage employers: Explore new models for industry involvement. Build on successes engaging industry, for example, through university continuing education departments and colleges’ program advisory committees (which involve industry and community partners in curricula development).

Ensure all students graduate with transferable skills: Develop work-ready skills like AI literacy, adaptability, entrepreneurship, communication and collaboration in courses, assignments and work-integrated learning experiences.

Expand access to work-integrated learning: Including but not limited to internships and co-ops; practical programs with applied learning opportunities or immersive field trips, like visiting mining sites with industry partners are also great examples of work-integrated learning.

  • Create opportunities for students to work together across disciplines–like they will in the workforce–to solve problems.

  • Explore opportunities for technology to build experience (i.e. simulators).

Facilitate greater career mobility: Enable workers to navigate a dynamic economy. Consider:

  • Multi-disciplinary programs like the University of Calgary’s new energy science program, which covers a range of in-demand energy fields.

  • Incremental credentialling, for students in programs with low completion rates, like apprenticeships, so they receive recognition for skills gained.

  • Competency-based education programs that allow adults with relevant skills and experience to earn credentials quickly, learning at their own pace.

  • Skills-based transcripts that position graduates to articulate their competencies and succeed as employers shift toward skills-based hiring.

Develop community-based programming: Work closely with Indigenous communities and industry to develop tailored training programs. Consider using mobile training units, and remote or hybrid learning formats (where internet connectivity allows).

Offer upskilling and reskilling programs: This should include programs aligned with opportunities in defence and energy sectors, and to support an AI-literate workforce. Programs must meet the needs of learners with competing responsibilities, embracing formats like remote/hybrid, intensive learning, and competency-based education.

Prioritize Canadian technology: All colleges and universities should commit to using Canadian technology, including AI, unless no domestic supplier offers an appropriate product or service.

Industry

Send executives to participate in federal Workforce Alliances: They should come prepared with long-term project plans and skills projections.

Allocate staff resources to inform program development: Industry representatives with insight into day-to-day and forecasted long-term skill needs should be involved in designing postsecondary programs and work-integrated learning experiences. They should commit to hiring students who complete those programs.

Allocate more corporate resources for staff training: Canada’s top 100 companies, by market cap, should commit to a minimum annual training budget of $500 per employee – roughly double the current estimated industry average.

Innovate with postsecondary partners: Contract researchers at Canadian universities and colleges to overcome issues or improve productivity with new processes and tools. Consider a “relay race” partnership approach, e.g., university ideation, college or polytechnic application, industry deployment.

Reach students in high-schools, colleges and universities: Shareinformation about rewarding careers in sectors in need of talent, like energy. Host secondary and postsecondary student field trips that provide sightlines into specific industries.

Leverage AI for productivity gains: Integrate AI into core operations, not simply pilot projects and provide access to AI upskilling that develops internal capacity for productivity and growth.

Build mutually beneficial Indigenous partnerships: Engage communities surrounding major project sites to lay the foundation for meaningful employment and community benefits, including working with postsecondary to design and offer tailored training programs.

Hire for skills: move from hiring candidates who have held the same or similar job title previously, toward hiring candidates with skills and experience that align with expectations (or skill families), supporting a more mobile workforce and sending clear signals to training providers about which skills are needed.

Prioritize Canadian technology: Canada’s top 100 companies, by market cap, should commit to using Canadian technology including AI and space-based technologies, unless no domestic supplier offers an appropriate product or service.

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Artificial Intelligence is poised to reshape how value is created across Canada’s economy. To understand that shift, RBC Thought Leadership interviewed more than two dozen firms that are on the frontlines of building or deploying AI for Bridging the Imagination Gap: How Canadian Companies Can Become Global Leaders in AI Adoption. The report distilled the patterns that emerged from those conversations.

Building on that report, the series of case studies go a level deeper: following one company’s journey through specific problems, pivots and opportunities, helps illustrates the strategic choices and policy conditions that turn technical promise into economic and societal value.

In mining, the most important board-level decisions still hinge on results from distant lab tests—where core samples are cut and analyzed to measure mineral content. These tests are often slow, costly, and logistically risky, taking 6–10 weeks at precisely the stage when capital is most at risk.

GeologicAI moves the lab to the drill pad. Its AI-enabled sensors compress the sense–think–act loop to under 48 hours, turning scans into grade and NPV metrics that drive next-shift drilling decisions and reduce idle capital.

Adoption depends on trusted translators—domain experts fluent in both geology and AI—who can champion the shift and explain results in terms colleagues believe. Scaling that expertise along continued integration of new tools will be critical to scaling the technology within the industry.

For Canada, the lesson is clear: world-class AI research only becomes industrial leadership if policy incentives also target deployment and scale, not just R&D—funding field-ready teams, adoption support, and speed-to-scale in critical minerals.

Picture this. It’s nearly 40°C as a pair of geologists carefully extract two deep core samples from the 40,000-pound drill rig towering above them—the highest point for miles in Australia’s scorching Pilbara desert. Sent from Sydney, the team’s task was straightforward: retrieve the cores and escort them safely to geological assay lab 1,400 kilometres away in Perth. The tests would reveal whether the deposit has the potential to become a mine.

Battling oppressive heat and the clock, the window to act is short. The next phase requires loading the cores onto a Land Cruiser before navigating 200 kilometres of treacherous desert roads to a remote airfield and a waiting plane. These cores represented the final testing round for a proposed lithium mine, a pivotal step standing between their junior mining company and nearly AUD $500 million in funding should the core sample yield positive results.

The pair of geologists, along with a handful of others staking their careers on the two-year-old mining venture, understand the thinning patience of their financiers. Each day spent waiting on core results equates to well over AUD $110,000 in foregone returns—capital that an established mine could easily generate. The financiers know the stakes, but patience wanes with prolonged uncertainty. This was their eighth round-trip in five months, each journey a tense race against fading trust and tightening budgets. A dropped core, a missed flight, or another lengthy lab delay could shatter the fragile confidence holding this venture together.

GeologicAI flips the script by bringing its AI-powered core scanning technology to the deposit—eliminating many of the trips between assay lab and drill site and speeding up assessment processes.

Exploration is a relentless triangle of geology, capital, and time—often played out in the planet’s remotest corners. For Grant Sanden, Calgary-based founder and CEO of GeologicAI, it’s more than a logistical headache—it’s the central problem of mining: how to turn rock into reliable knowledge fast enough to guide investment. That’s the problem GeologicAI set out to solve.

A veteran of Canada’s resource sector, Sanden had watched scores of projects like the scene outlined above stall on the same bottleneck: the time it took to turn rock into knowledge. He knew the issue was not about pulling more samples—at 300 metres down you can drill forever and still miss the truth. The real cost lay in the slow, fragmented data loop that leaves geologists guessing, financiers fretting, and drill rigs burning cash in limbo. What if, he asked, the industry stopped treating assays as an after-the-fact report card and started treating them as a the key to a real-time decision engine?

Numbers

6 -10 daysTypical number of days delay for lab results to arrive from core samples, which determine how much metal is in the rock. Until then, multi-million-dollar drilling and investment decisions are on hold.
24 – 48 hoursHow long it takes GeologicAI to deliver the same results using its on-site, AI-enabled sensors.
$US 13bAnnual globalnon-ferrous exploration budgets (2023).
$US 60mGeologic AI’s July 2025 raise to scale globally amid the data‑centre/energy‑transition mineral crunch; headcount ~220, ~80% in Canada.
5Number of continents GeologicAI is active in.
16Median years from discovery to first production globally.        
6Per cent of firms in the mining sector that currently use AI.

Sanden’s hypothesis was straightforward: if core samples could be scanned where they’re drilled, mining exploration and development decisions would no longer hinge on assay lab results that could take several weeks. In practice, this involved a truck-towed trailer fitted with hyperspectral, X-Ray Fluorescence (XRF) and visual sensors, connected to machine-learning models that classify rock type, estimate grade and assign a preliminary dollar value. The trailer could also be lifted by helicopter to a mining project.

After building the prototype and conducting some initial field tests, Sanden and his team proved the AI-powered system could return a usable dataset in roughly 48 hours—compressing what had been an eight-to-twelve-week cycle and giving geologists enough confidence to refine drill plans before the next shift.

In mining exploration, GeologicAI shows that the real power of industrial AI is not only in accurate prediction, but also in compressing the sense–think–act cycle so it keeps pace with daily operations. By placing a multi-sensor lab at the drill pad, GeologicAI cuts the turnaround time for critical data from weeks to hours. Routing those scans through AI models that output economic metrics—grade, tonnage, NPV deltas—GeologicAI can turn enhanced data into better decisions before the next two-week shift even begins.

AI models that generate economic metrics—grade, tonnage, net present value (NPV) deltas—allow its mobile labs to deliver the analysis needed for better decisions before the next site shift begins.

  • Sense – Hyperspectral, XRF and visual sensors capture gigabytes of rock data on site.

  • Think Cloud models classify lithology, estimate grade and recalculate NPV in near real-time.

  • Act – Before the next shift, geologists see a refreshed analysis that answers the pivotal financial questions: Where do we drill next? How deep? When do we stop?

GeologicAI’s “High Resolution Decision Engineering” made decision-making faster and more dynamic. What had once been a linear sequence of costly bets became an agile sprint cycle—each hole informed by the last, each dollar tied to a fresh decision metric. In short, data stopped being a retrospective audit trail and became the steering wheel of the program.

Pitching GeologicAI’s solution also carried the challenge all first-movers face: no competitive heat. Early adopters could not point to rival mines already reaping the benefits. In a business where margins hinge on proven processes, being first could feel like volunteering for a metallurgical science experiment. Without “follow-or-fall-behind” pressure to fuel later-stage diffusion, GeologicAI had to sell both the vision and the urgency of change—one champion at a time.

Fortunately, within months of the first 24-hour data loop, GeologicAI secured its first set of pilot programs—including a high-profile engagement with Agnico Eagle Mines, one of Canada’s largest mining companies. According to Executive Vice President of Exploration Guy Gosselin, “this core scanning revolution places Agnico Eagle on the frontline of innovation and improves our critical decision-making capacity.”

For Agnico, the attraction was threefold:

  • GeologicAI’s system was faster and more accurate than traditional assays—compressing weeks of data-crunching into hours.

  • The richer datasets complemented, rather than replaced, existing geological information, giving decision-makers a complete and more reliable picture of deposits.

  • Adopting cutting-edge AI technology bolstered Agnico’s reputation as an employer of choice in a sector competing fiercely for talent.

That willingness to innovate created the opening for an internal champion. At Agnico Eagle, Gosselin, with purview over exploration, recognized the opportunity, translated the value for colleagues, and bridged skepticism with proof.

Sanden recognized the power of an internal champion early on. At Agnico Eagle, a forward-looking geoscience lead could see the opportunity and translate it for colleagues.

The business development lesson crystallized quickly: decision-makers who grasp both geology and data science are rare—but indispensable. Rather than cold-calling every mine CFO, Sanden focused on searching deliberately for strong leaders—cultivating their interest with pilot data and shared credit. Once an internal champion within a target client firm validated the technology, resistance melted away and adoption rippled across additional sites.

With persistence—and a few early wins—GeologicAI found its stride abroad. GeologicAI’s core value proposition is characteristically Canadian: a fusion of Calgary’s world-class natural resources expertise with national leadership in AI. Export Development Canada and the Bill Gates-backed Breakthrough Energy Ventures recognized that potential, backing an initial US$30 million Series A to turn the concept into field-ready hardware. Still, as Sanden would later reflect, building the technology was only half the battle; getting it deployed at home proved harder.

Today, there are more than two dozen trailer labs around the globe, from the Yukon to Pilbara and Chile’s Atacama Desert. The company’s Canadian pedigree quickly became a stamp of legitimacy in foreign jurisdictions.

GeologicAI’s workforce has grown to more than 200 across five continents, giving the company a front-row seat to how AI talent meets real industrial problems. One contrast is striking: Canada is a recognized AI research powerhouse—home to pioneers like Richard Sutton, Geoffrey Hinton, and Yoshua Bengio—yet the pool of production-grade, domain-savvy engineers is thin. The missing piece is not brainpower, but the applied expertise to turn world-class research into field-ready solutions. That gap—between invention and application—set the stage for GeologicAI’s third lesson: the need to cultivate “translators” who are articulate in both technology and geology.

GeologicAI’s answer has been twofold: hire translators—midcareer specialists who already know ML Ops, sensor fusion and drilling economics—wherever they live, and run an internal upskilling program that pairs Canadian researchers with field-seasoned geologists until both languages—rock and code—are fluent with each other.

In effect, the company’s journey has come full circle. What began as a Calgary startup solving a logistics headache now sits at the first link of North America’s electrification supply chain—mapping orebodies that will feed battery factories in Ontario and EV assembly lines across the continent. At the same time, its building out its CO₂-reduction analytics capabilities—helping miners blend ore and run smelters more efficiently, turning sustainability from a compliance cost into a competitive lever. GeologicAI is both innovator and enabler: a showcase of Canadian AI deployed at scale and a tool for unlocking the critical minerals Canada needs to cement its place in the next wave of advanced manufacturing.

Research and Experimental Development (SR&ED), a tax credit which reimburses firms after they invest in development and can take months in reviews and approval processes. While SR&ED is useful for prototypes, it’s not equipped to underwrite the riskier leap to first deployment. GeologicAI learned this firsthand: its Canadian pilot languished in grant limbo while the same scanner, shipped to a U.S. customer under a performance-linked voucher, reached fleet rollout in just six months.

If SR&ED looks backward, international programs look forward. Australia’s METS Ignited and the U.S. Department of Energy’s US$6.3 billion Industrial Demonstrations Program tie funding to milestones or proven outcomes—effectively paying for results, not receipts. That structure de-risks adoption for buyers and accelerates diffusion. GeologicAI’s own progress highlights both sides of the equation: despite slower support at home, the company has continued to expand, proving what Canadian innovation can achieve when paired with the right conditions.

For Canada, the lesson is clear. Redirecting even a portion of SR&ED spending toward outcome-based deployment incentives—field vouchers, first-deployment guarantees, and measurable performance targets—would shorten the path from lab to loader. Done right, Canada could position itself not just as the birthplace of AI breakthroughs, but as the place where heavy-industry AI actually runs. That’s how Canada can turn its AI breakthroughs into lasting industrial advantage.

From Rock to ROI: How GeologicAI Turns Cores into Capital - download report

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  • Natural capital remains an underused economic engine. The GDP of Canada’s nature-based sectors, including forestry, agriculture, mining and fisheries, grew 0.3% slower, year-over-year, compared to the rest of the economy over the past quarter century. A similar trend is observed in the United States and the United Kingdom.

  • Ignoring nature threatens prosperity. More than half of the world’s economy, roughly $78 trillion, depends on nature, from food to tourism to construction. Canada, the U.S. and the U.K. are looking to build back their economies, but the nature base their economies rely on for long-term growth is depleting, and its true value is not accounted.

  • There is a generational opportunity to leverage natural capital wealth through nation-building agendas. Countries that track and grow natural capital alongside GDP can unlock growth and attract global investors hunting for investable natural capital projects. With finance mobilizing to close the nature finance gap, demand is rising—and an estimated $580 billion is required annually by 2030. That will increase to nearly $940 billion by 2050.

  • Private capital is critical to closing the gap – and scaling. Governments currently account for 82% ($222 billion) of nature finance. Private sector would need stronger policy signals and assurance that their investments will generate returns.

  • Nature’s place in finance and environmental markets is growing but remains underrepresented. Nature is a small segment of sustainability finance. In 2025, nature-based carbon offsets have represented 13% of voluntary carbon credits but hold more than half of the annual potential of carbon credit creation.

  • Policy integration, AI, and…yes, accounting can get nature on the balance sheet and growth agenda. For Canada, a timely test for all three is the implementation of the Critical Minerals Strategy and emerging major mining projects.It starts withincluding Indigenous values and knowledge systems in natural capital accounting frameworks.

RBC launched the Climate Action Institute in 2023 to support Canadians in our collective journey to net-zero, with a commitment to inform, engage and act on all aspects of the climate challenge. Protecting, conserving, and growing natural assets is a critical part of the journey to net-zero.

Nature is a foundational asset in growing our economy. This is a timely issue as advanced economies like Canada, the U.K., and the U.S., push forward nation-building policy agendas and projects. But there’s a problem: Nature and the people who steward it–including Indigenous communities, farmers, fisherpersons, and fosterers–are often left off the balance sheet. This is the issue that the RBC Climate Action Institute and Nature United, the Canadian affiliate of the global conservation organization, The Nature Conservancy, dig into in this report.

Building, consuming, and exporting more to boost GDP inevitably strains the forests, soils, and waters that make all growth possible. But pro-growth agendas also present a generational opportunity–to treat nature not as a cost to manage but as an asset to build, value, and leverage.

More than $78 trilliona of the global economy–roughly half of total GDP–is highly to moderately dependent on nature.1 Yet, national GDPs count nature only after it is extracted–fish, grain, timber–while mostly ignoring ecosystem services from nature. This includes carbon storage in agricultural soils, water filtration in healthy peatlands, and cultural and biodiversity benefits of intact forests. Valued at more than $200 trillion, ecosystem services remain largely invisible in economic accounts, leaving both a major source of growth and a growing source of risk unrecognized.2

Accounting nature’s true value has been an agenda item for global leaders at nature and climate change meetings for more than 30 years. When Brazil last hosted the world at the 1992 Earth Summit in Rio, leaders signed the first global agreements on climate and biodiversity. This Fall, at COP30, leaders are gathering again in Brazil and have the chance to finally put nature at the center of economic strategy.

Securing finance for nature continues to be a challenge. The vast majority is coming from governments, as industry has largely steered clear due, in part, to uncertainty around investment returns. Global public and private nature finance amounts to roughly $270 billion per year. To close the nature finance gap by 2030 more than $580 billion is required annually. That climbs to about $940 billion a year by 2050.3

A marriage between nature and pro-growth policy agendas provides an unprecedented opportunity to leverage nature as an investable asset. Building natural capital wealth provides a pathway to reboot nature-based sectors, including agriculture and forestry, and boost nature’s role in the built economy, including green infrastructure in housing developments. Investing in nature also mitigates economic losses, including the $3.3 trillion at risk, globally, if ecosystem services such as wild pollination or marine fisheries collapse due to over extraction.4

Canada, the U.S. and the U.K. have all set pro-growth agendas and offer three policy and economic models for nature integration. Roughly 7% of Canada’s GDP is from a nature-based sector–agriculture, mining, forestry and fisheries. Collectively, these sectors’ GDP growth has been 0.3% slower than the rest of the economy over the past quarter century.5 In the U.S., the Federal Reserve estimates that extreme weather events can negatively impact the country’s GDP by 0.5% annually.6 And natural protection, like coastal wetlands, are disappearing to developments, intensifying the impacts. If current trends persist, the U.K.’s management of its natural capital could cause GDP to shrink by roughly 5% by 2030.7

Nature is now both a reportable risk and an investable asset class. Yet, implementation is uneven. More than 90 countries, including Canada and Australia, have adopted natural capital accounting frameworks aligned with the United Nation’s System of Environmental-Economic Accounting (SEEA). But a gap remains in fully integrating natural capital into national GDP accounts and using natural capital accounting to guide large-scale investments. In the private sector, some regions–like the European Union–mandate sustainability reporting and encourage alignment with nature-related finance frameworks, such as the Taskforce on Nature-related Financial Disclosures (TNFD).

While the landscape of nature accounting and finance standards remains messy, these examples show that the policy and reporting scaffolding to treat nature as a cash-flow–relevant asset exists. Now, it’s time to streamline nature governance, improve accessibility for companies and governments by applying disruptive technologies like AI, and integrate it into pro-growth policy.

The Canadian model: Rich in resources, searching for new growth drivers

Canada is abundant in natural assets—home to 25% of the world’s wetland, 24% of boreal forests, and 30% of the world’s freshwater—and, as noted above, roughly 7% of the country’s GDP directly depends on their stability and productivity and this dependency trickles down the supply chain.8

Canada’s approach to integrating nature into economic growth is driven by funding and finance packages, target setting, including the 2030 Nature Strategy, and the expansion of national parks and ecological corridors. These investments and commitments are enabling progress on conservation and nature protection. Yet, existing policy measures fall short in capitalizing on nature accounting frameworks to return that value to the people on the ground at scale.

Canada’s challenge with integrating nature into its pro-growth policy is balancing its natural resource dependent growth with its commitment to United Nations Declaration on the Rights of Indigenous Peoples, while also upholding its legislated climate commitments. A complex landscape to navigate. But a necessary one to ensure Canada’s nation-building projects do not undermine Indigenous peoples’ rights and knowledge systems, nor hollow out one if its greatest assets in nature. 

The U.K. model: A natural resource-strapped country with outsized ambitions for use

The U.K. is one of the most nature depleted countries in the world with only half of its native wildlife intact.9 The country’s economy is primarily driven by service sectors like finance and real estate, while nature-based sectors account for roughly 2% of the economy.10 But, the country’s intense competition for natural assets and the rate of their depletion has ignited momentum for nature finance domestically. This momentum includes a call for recommendations on how the government can help expand the private sector’s role in nature recovery under the U.K. Government’s pro-growth strategy, Plan for Change.

A key component of the Plan for Change is the country’s ambitions to build 1.5 million homes and fast-track planning decisions on at least 150 major economic infrastructure projects, including the establishment of AI Growth Zones for data centres. Through the U.K.’s biodiversity net gain (BNG) and nutrient neutrality policies, a market-based opportunity for landowners and stewards to build up natural assets is integrated into these developments.11 This demonstrates that nature-focused U.K. policy is increasing and aligned with pro-growth policies.

But the country is still expected to fall short in both addressing GDP loses from natural capital depletion and achieving targets, such as conserving 30% of its biodiversity by 2030.12 The U.K. presents a challenge of nature restoration at scale, amidst intensifying and competing interests in natural assets. The water and land demands of housing, agriculture, and AI data centres expansion stresses the need for greater natural capital planning that informs nature positive economic growth options, beyond offsetting impacts.13

The U.S. model: An economic giant veering off course in valuing nature

Roughly 3% of the U.S.’s GDP is from nature-based sectors. And more than 10% of its GDP is highly exposed to nature, including industries that are down the supply chain of nature-based sectors, like food manufacturing.14 And yet, more than 40% of its natural ecosystems are said to be at risk of collapsing.15 In 2023, the Statistics for Environmental-Economic Decisions (SEED) program–informed by the SEEA framework–quantified the value of U.S. natural assets. This exercise valued private land at $43 trillion, about 30% of the U.S.’s net wealth. This positioned the federal government to make informed investments in conservation programs and green infrastructure developments, including the $1.3 billion delivered under the Inflation Reduction Act for urban greening.16

Under the Trump Administration, there has been a shift from accounting renewable natural assets on extracting non renewables. This is most notable under the Unleashing American Energy executive order, which revokes guidance to federal agencies to consider ecosystem services like a wetland’s contribution to flood management in project reviews. Newly proposed amendments to the One Big Beautiful Bill Act could also jeopardize a more than 100-year-old revenue-sharing agreement between the federal government and rural communities in forest management. This longstanding agreement returns 25% of the federal government’s profits from commercial logging to rural communities–where the logging takes place but doesn’t generate local property tax–to invest in local infrastructure. The amendments to the Act could redirect those funds back to the federal government and raise the minimum logging requirements.

Sidelining national efforts that account natural assets alongside GDP risks overlooking a source of economic growth and risk. The polarizing nature of U.S. federal politics calls for a rebranding of natural assets and their management that can withstand changes in administration. Most pressing is a communication strategy that stresses nature’s value within the federal administrations focus on a production-based economy.

Finance and funding: The tidal wave for stimulating growth

FundsDedicated investment funds that finance projects aimed at conserving, restoring, or sustainably managing natural capital.
GrantsNon-repayable funds given to support nature-related activities. 
SubsidiesFinancial incentives or support to encourage environmentally beneficial activities (e.g., tax breaks, or reduced fees)
BondsA fixed income debt instrument where proceeds from investors are specifically used for nature-based projects.
LoansBorrowed funds for nature projects that must be repaid with interest or improved lending conditions.
Debt-for-nature-swapsA deal where part of a country’s foreign debt is forgiven in exchange for commitments to fund conservation projects.                 

Funds and financing can open the floodgates in creating a role for nature-based solutions in the economy. However, governments are largely footing the bill–providing 82% of nature finance flows, globally17–making it difficult to raise the funds required for transformational projects.

Project Finance for Permanence (PFP) in Canada is a breakthrough conservation finance model for matching long-term government, private, and community funding. The first PFP in Canada, Great Bear Rainforest, born from a community well-being crisis in First Nations and conflict over logging, is now repositioning nature as a source of prosperity and enabling Indigenous-led conservation and economic development opportunities. Since the inception of the Great Bear Rainforest PFP in 2007, more than $444 million has been invested.18

CASE STUDY

Where: Great Bear Rainforest and Haida Gwaii, British Columbia, Canada

Long-term conservation finance steered by First Nations’ vision for economic development and conservation is multiplying the magnitude and durability of opportunities for communities, businesses, and nature conservation.

Driver:

A crisis in First Nations community well-being and an economy heavily reliant on extractive industries in B.C. in the 1980s and 1990s underpinned the growing conflict over natural resource management and limited economic and community development opportunities resulting in First Nations with unemployment rates as high as 80%.37 This unsustainable model came to a head in the 1990s. The First Nations-led movement, including War of the Woods, the historic Clayoquot Sound Protests in 1993, and with support from environmentalist groups, demanded protection of First Nation’s territories and access to economic opportunities. This movement led to the B.C. government initiating a strategic land-use planning process. This was a key step in making way for transformational change where prior piecemeal attempts had failed to improve community well-being, and economic and environmental conditions.

Resulting from the demand for change, was the creation of Coast Funds in 2007, a conservation finance institute with a mandate to implement portions of the Great Bear Rainforest Agreements. Coast Funds was created out of mutual recognition by First Nations, environmental groups, industry, and government that community well-being is critical to a sustainable economy and responsible management of natural resources.

Mechanism for change

First Nations and environmental organizations raised $60 million in private funds in 2006 to create the Coast Conservation Endowment Fund, with $4 million of those funds going towards conservation planning and operational start-up costs. One year later, the provincial and federal governments came to the table with match funding, and the Coast Economic Development Fund was born. These two funds, initially amounting to $120 million, are governed by the Coast Fund’s board of directors, which are appointed by First Nations, the B.C. Government and philanthropic foundations. The board oversees the funds’ finances and investments in Nations, who bring forward projects for the board to review.

The governance structure of the board has evolved as the foundations have consolidated their governance roles and relinquished their voting rights to elevate the influence of First Nations in steering the direction of Coast Funds, giving them equal control with Crown governments. This shift in governance advances the vision of Indigenous-led economic development and stewardship being led by Indigenous Nations. 

In the making

First Nations have invested more than $120 million from Coasts Funds and leveraged $324 million of their own funds and additional funding sources. The $444 million has been invested across economic sectors, including tourism, manufacturing, forestry, and aquaculture.

Complementary to funds from Coast Funds, Nations are generating carbon credit sales under the Atmospheric Benefit Sharing Agreement between two regional Indigenous organizations, their respective First Nations member Nations, and the provincial government. These agreements lay out the framework for sharing carbon benefits like offset credits associated with the Great Bear Rainforest agreements that avoid deforestation.  

Taan Forest, a Haida-owned forestry company, is one example of stacking funds and supporting carbon credit creation to advance sustainable forestry businesses. The company leveraged dollars from Coast Funds to develop an industrial park that enabled Haida entrepreneurs to participate in the value-add forestry sector.38 Taan Forest provides economic opportunities while protecting the Nation’s environmental and cultural assets by securing the forestry tenure for 60% of forestry operations on Haida Gwaii.39

Impact

Coast Funds has been a catalyst for Indigenous-led-and-owned economic development initiatives, which includes the growth or establishment of 144 businesses, the creation of more than 1,400 jobs, including 850 fulltime roles, with salaries totaling more than $70 million.40 Recognizing the Nations’ forestry stewardship and its role in climate action under the Atmospheric Benefit Sharing Agreement, the B.C. government has purchased more than $56.5 million in carbon credits from the Great Bear Carbon Credit Limited Partnership and $6.8 million from the Na̲nwak̲olas Offset Limited Partnership.41

On-the-ground, First Nations have led more than 444 habitat restoration and research initiatives benefiting species with cultural and economic significance, including salmon, kelp and trees. Taan Forest’s practices are aligned with Forest Steward Council Certification, Rainforest Alliance Certification, and the conservation standards of the Haida nations Land Use Order, enabling their sustainable forestry practices to be recognized by their supply chain. The latter ensures sensitive habitats are protected, including bear dens, bird nesting areas and reducing the allowable cut for logging, enhancing habitat protection and restoration.42

Lessons

Funding allocation criteria focused on scale can lead to inequity. The original Great Bear Rainforest funding allocation model incentivized higher levels of conservation by providing more benefits to First Nations that committed to large-scale biodiversity protection through the protection of intact forest ecosystems. As a result, First Nations with the largest conservation area and populations received the largest allocations, while First Nations’ whose lands had already been intensely logged, and those with smaller populations, received less. Recognizing this challenge, First Nations decided on the funding allocation formula for the Great Bear Sea PFP to ensure equity and account for nuances in scale and impact. Through the Great Bear Sea PFPs, all participating First Nations receive a baseline of support to advance their economic development and stewardship goals.

Great bear rainforest
Photo credit: Andrew S Wright

Building upon the momentum of the Great Bear Rainforest PFP, Coast Funds is now also overseeing the delivery of funds under the Great Bear Sea PFP. This PFP has an initial $335 million in funding, securing long-term Indigenous-led financing for Indigenous-led stewardship and development.19

Expanding conservation financing

Debt products for nature-based solutions can provide upfront capital, but projects must deliver competitive returns for investors and financers. Debt-for-nature swapping, for example, often engages development banks to help keep the cost of borrowing down and provide greater assurance to private investors. The debt-swapping market has more than doubled in the past year, totaling $3.6 billion.20 However, some nature finance experts say the structure for debt-for-nature swapping has expanded beyond its original purpose. They suggest that involving development banks and agencies in building natural capital helps build financing needed for projects as it reduces risks for other investors. However, the country receiving the funds should also consider how the debt swapping impacts their ability to control how their natural capital wealth is managed.

Green and sustainability-linked bonds and loans have also grown into significant debt products, with nearly $15 trillion in value to-date.21 Yet, nature focused debt remains a relatively small slice of total bond funds allocated. Over the past year, less than 10% of proceeds from green and sustainability-linked bonds explicitly went towards nature-based projects. While nature-based projects mature in their ability to guarantee returns for investors, the government and impact investor’s roles in scaling debt products for nature remain critical.

Beyond funding and finance, governments can also use their authority to recognize high-integrity nature-based projects to attract private dollars. Environment and Climate Change Canada, for instance, is piloting a Conservation Exchange. In the pilot, the federal government is testing an approach that recognizes the proven benefits of conservation projects funded by companies through government approved biodiversity certificates.22 Building from a long-term funding relationship, insurance firm Aviva and the Nature Conservancy of Canada are leveraging the Conservation Exchange pilot to deliver value through nature’s role in risk management and revitalizing working lands, like range pastures on restored native grasslands.

CASE STUDY

Where: Saskatchewan, Canada

Nature is an asset and a risk. Insurers and those managing working lands like grasslands for livestock grazing face this reality every day. Investing in long-term projects that restore depleted lands and their natural ecosystem functions provides a gateway for nature to contribute to economic resilience.

Driver:

Roughly 75% of Canada’s native grasslands are gone.43 Canadian grasslands stitch together the prairie provinces, store two- to three-billion tonnes of carbon, and are home to a dwindling number of ranchers, livestock herds, and native species that now make up one of the world’s most endangered ecosystems.44 Grassland loss is driven by land-use conversion for cropland production, resource extraction from mining and energy production, and urban sprawl. While these activities contribute to growing Canada’s economy, the loss of grasslands intensifies resource depletion and environmental risks, including droughts.45 Extreme weather, wildfires and the impact on natural and built assets is a material risk for the economy and a growing cost for insurance companies. The summer of 2024 was the most destructive and expensive season in Canada from extreme weather, with weather event losses totaling $7.7billon.46

Mechanism for change

Restoration does not happen overnight, which is a deterrent for investors who want immediate results. But with some foresight and common ground, The Nature Conservancy of Canada (NCC) and Aviva engaged in a 7-year partnership to restore grasslands across nearly 450 acres in Saskatchewan. Restoration investments are typically short term (1-3 yrs) and focused on immediate outcomes, not allowing for a multi-phase approach that restoration often requires to be durable. Aviva’s investment breaks that cycle.

To strengthen the partnership, government recognition of the grassland restoration projects is helping boost its appeal. Environment and Climate Change Canada is piloting a Conservation Exchange, providing companies with certificates that recognize their investment in high-integrity nature-based projects that have proven to deliver real biodiversity impacts. This exchange is a new approach to attract capital to build natural assets and provides companies with the opportunity to obtain government issued biodiversity certificates that acknowledge their investment, making associated sustainability claims more rigorous. NCC’s grassland restoration projects, supported by Aviva in Saskatchewan, are part of the Conservation Exchange pilot. 

In the making

Native seed production in Canada is limited by a lack of capital investment and long-term contracts, making it difficult for local growers to scale grassland restoration. To address this, the partnership with Aviva allowed NCC to establish a multi-year agreement with a native seed grower: Skinner Native Seeds. The upfront investment from Aviva reduced financial risk for Skinner Native Seeds and supported a scale up in production, improving restoration outcomes for grasslands and strengthening the resilience of Saskatchewan’s native seed industry.

Impact

The benefits are multi-dimensional but grounded in restoring productive working landscapes that combine opportunities to support conservation and agriculture production.

Through the Conservation Exchange pilot expert evaluation, the projects received positive scores, overall, for species and ecosystem restoration and improved probability of persistence for focal species, which serve as a proxy for broader biodiversity status. At the Old Man on His Back grassland restoration site in Saskatchewan, habitat for Species at Risk and grazing capacity is being expanded by increasing available native vegetation. To enable this restoration project and to increase seed production, Skinner Native Seeds estimates wildflower seed production at their facilities will increase by up to 200 lbs., – in 2027, leading to the expansion of roughly 40 species of native wildflower to support biodiversity and climate-resilience in the prairies.

Government recognition of these biodiversity benefits adds credibility and transparency, allowing companies and the public to understand the scale of the impact and the species and ecosystems expected to benefit.

Lesson

Nature restoration project developers looking to scale investment need to master communicating outcomes in a way that resonates with investors. They also need to play a role in educating investors on the importance of time in delivering meaningful and long-lasting impacts on the ground. This communication and education starts with knowing the audience. Understanding investors’ objectives in nature-based solutions–including mitigating risks, ESG claims, and meeting climate targets–is paramount in designing nature restoration projects that meet shared objectives among communities, conservationist, companies, and governments.

Nature Conservancy of Canada
Photo credit: Nature Conservancy of Canada

Streamlining policies to optimize public investment

While governments are driving investment in solutions, they may also be undercutting progress. The United Nations Environment Program finds that public finance flows to nature-based solutions are less than one-tenth of public spending on environmentally harmful subsidies. This issue is especially of concern in agriculture. Farmers in Canada, for instance, can receive funds for sustainable practices under the On-Farm Climate Action Fund, supporting the adoption of cover crops and improved fertilizer practices. And they can access government subsidized crop insurance, which some farmers are finding can incentivize growing crops on marginal land that would otherwise be uneconomical.23 24 Similar examples can be found in the U.S. under the Federal Crop Insurance Program. Some states are taking steps to address the mismatch between government safety nets and supports for sustainable agriculture by offering programs such as insurance premium discounts for farmers who adopt sustainable practices, like the Iowa Department of Agriculture & Land Stewardship’s Crop Insurance Discount Program for cover crop adoption.

Governments and the private sector have also struggled to expand market-based incentives for nature-based projects. Some farmers are taking note and using government grants to kickstart grassroot initiatives that give them control over how the value of ecosystem services is integrated into their business and recognized in the marketplace. The Prince Edward Island Federation of Agriculture, for example, learned early in their GHG mitigation journey the importance of robust data collection and monitoring of soil carbon to tap into carbon markets. Spurred by local leadership, the federation is helping position farmers to align practices with carbon offset protocols and build algorithms and data standards to unlock carbon value and improve efficiency.

CASE STUDY

Where: Prince Edward Island, Canada 

With sights on carbon credits, Prince Edward Island farmers learned that the efficiencies they gained from practices that reduce GHG emissions were indeed the real economic opportunity.

Driver:

A desire to incentivize farmers for their climate action was the impetus for P.E.I. Federation of Agriculture (PEIFA) in building soil carbon and GHG emissions measurement infrastructure required to connect farmers to carbon markets, while maintaining ownership of their data.

Farmers can be leaders in advancing climate solutions. Responsible management of inputs like nitrogen fertilizer that are essential tools in growing healthy crops and yields is a key part of farmers’ role in driving climate action. Potato production represents most of the agricultural land use on P.E.I., roughly 86,500 acres, and potatoes are a nutrient dense crop to grow, presenting an opportunity to explore how efficiencies in fertilizer use can be incentivized through carbon credits that reward reductions of net GHG emissions.

Mechanism for change

A mix of government funding and provincial leadership spearheaded by the P.E.I. Federation of Agriculture, and the launch of the offset protocol for improved agricultural land management on VERRA’s voluntary offset carbon registry, together, created the right conditions for the federation’s Agriculture Internet of Things (AgIoT) to come to life. AgIoT is a farmer-owned, scalable, data-agnostic, and real-time monitoring platform.

Money, project leadership, and a protocol that outlines the standard on how to enhance soil carbon and reduce GHG emissions are all necessary pieces to producing carbon credits. But, for nature-based projects, like this, arguably the hardest part is the data collection. This is why AgIoT, a technology solution for farmers by farmers, was created.

In the making

To access carbon markets, projects need baseline measurements, from which farmers adopt best management practices like precision nitrogen application or cover crops to show progress. The P.E.I. Federation of Agriculture developed the ‘P.E.I. Low Carbon Cropping Initiative’ with 4,800 acres now enrolled, forming an offset market-compliant project with the goal of registering the project on a carbon market. At the start of the project, the federation and its farmers had an ‘Aha moment’: farms did not have the existing capacity to collect data at a level required for accessing carbon markets. As a result, they set out to automate farmers’ engagement with AgIoT as much as possible.

AgIoT automates data collection and processing, with the goal of reducing the burden on farmers to manage and maintain their data. In-field sensors provide real-time data collection that automatically uploads to the cloud and is accessible to the user through the AgIoT dashboard. AgIoT’s soil carbon and GHG algorithms are estimating agriculture carbon in soils and GHG emissions with real farmer data to determine impacts on net GHG emissions AgIoT platform.

Impact

In 2024, a semi-automated software version of AgIoT algorithms was used to model pilot farms participating in the Low Carbon Cropping Initiative. It analyzed crop history submissions, recent soil cores, and a process-based model for GHG emissions and soil carbon estimation. The results from the pilot farms showed that the farms’ GHG emissions reduction are between 50 kilograms and 150 kilograms of carbon dioxide equivalent per hectare. The piloted practices including precision nitrogen fertilizer management also showed that farmers could save $50 to $120 per hectare on inputs. A direct result of optimizing a production system to drive positive economic and environmental outcomes.

If these modelled efficiencies were applied to the 86,500 acres of annual potato production, it could result in reducing the equivalent of 1,750 to 5,250 tonnes of carbon dioxide per year. That’s just from improving farmers’ data resolution to inform greater efficiencies.

Lesson

Carbon markets for nature-based projects is not for the faint at heart. It’s costly. It’s time consuming. And it’s complicated to measure, monitor, report and verify net GHG reductions from biological systems over time because there are many variables to consider that are out of a human’s control. But when you have the right mix of technical skills on the ground to build and apply data solutions like AgIoT, pursing carbon credits can be a pathway to unlock new innovations and efficiencies for farmers.

A farm operation that can collect the necessary data for accessing carbon markets will have a tremendous opportunity to improve decision making and profitability, which is more valuable than the actual carbon credit.

.

Harnessing markets to promote nature and raise revenue

Offset marketsTrading system where those wanting to offset their environmental impacts compensate others for creating environmental benefits elsewhere.
Inset schemesReducing or compensating environmental impacts within a company’s own value chain. A company invests in nature and climate-positive projects directly linked to its suppliers, operations, or distribution. 
PremiumsPaying extra for sustainable products or services to cover the higher cost of low-carbon or nature-friendly options.
Consumers or buyers along the supply chain pay a higher price or give preferential treatment for sustainable production or nature protection.
Market accessGaining entry to markets by meeting specific sustainability standards or certifications.

Marketplaces for ecosystem services cover a growing range of outcomes, including water quality trading schemes in the U.S., emerging biodiversity markets, like those in Australia, and compliance carbon markets in the EU. Yet, market activity is primarily focused on producing credits from greenhouse gas (GHG) emission reductions, removals and avoidances through compliance and voluntary carbon schemes. Cumulatively, $15.3 billion in credits have been traded on the voluntary offset carbon market. Peaking in 2021 at $2.6 billion, there has been a steady fall in market activity with 2024 being a 5-year low with traded credits valued at $727 million.25 This decline can be attributed to compounding factors including the market going through a maturity phase with the onboarding of additional integrity and assurance guardrails, and macroeconomic volatility since the coronavirus pandemic.

Despite the market downturn, nature is banking on a maturing carbon market to drive finance. The voluntary offset market is still going through a transition phase, focused on raising the quality of credits on the market and aligning with compliance market standards. An early sign from the voluntary offset market reset is a higher demand for quality, nature-based projects that produce GHG removal credits. It’s an opportunity for nature-based projects that actively pull carbon dioxide from the atmosphere through active management and restoration of carbon sinks, including wetlands, croplands, forests, grasslands, and sea bottoms. Recent developments in nature-based offset protocols provide the frameworks needed to produce GHG removal credits that are in demand.

Blue carbon, for example, has the potential to remove three gigatons of carbon from the atmosphere per year, equivalent to more than 3% of global emissions.26 With the development of blue carbon protocols like the Tidal Wetland and Seagrass Restoration on VERRA’s carbon offset registry, communities and landowners restoring seagrasses can see returns from their conservation efforts in the marketplace. A seagrass restoration project in the eastern coastal bays of Virginia that includes researchers, conservationists, the local community, and the Commonwealth of Virginia serves as a proof of concept for how to bring a blue carbon project to the marketplace, including the amendment of laws, as the state owns the coastal sea bottom.

While nature-based protocols have allowed for increased market access, nature-based carbon offsets account for only 13% of voluntary carbon credits issued in 2025 to-date but hold more than 50% of annual carbon credit potential.27

CASE STUDY

Where: Cairngorms National Park, Scotland

Presenting the risks and returns to investors positioned this restoration project to attract patient investments and in return benefit from long-term contracts that reduce project costs and uncertainty.

Driver:

Scotland’s peatlands cover a fifth of the country’s land mass and store roughly 1.6-billion tonnes of carbon. Peatlands also play a critical role in water filtration and flows, influencing the water supply for neighbouring cities like Dundee and Aberdeen.47 But more than 80% of the country’s peatlands are depleted.48This depletion is caused by a combination of factors, including drainage for peat extraction, livestock grazing, and planting of non-native species like some conifers tree plantations. Today, degraded peatlands account for more than 3.5% of the U.K.’s emissions, as well as increasing flood risk and habitat loss.

The Cairngorms Peatland Restoration Project, one of the largest of its kind in Scotland, is an award-winning collaboration between landowners, the Cairngorms National Park Authority, Palladium, an impact consultancy, and Revere, the coordinator of the collaboration. The project blends public funding and private finance to share risk in peatland restoration and enable durability in nature finance solutions. More than 1,700 acres of peatland restoration is under way in Cairngorms National Park, across nine sites.

Mechanism for change

The project combines government funding via Peatland ACTION, a government program, with private finance through the sale of carbon offset credits verified by the Peatland Code–a voluntary certification standard for peatland restoration projects in the U.K. The Peatland Code ensures that projects are credible, providing assurance to investors through independent validation and verification. 

Carbon benefits from nature-based projects can take years to verify. As a result, revenue from carbon credit sales can be slow to materialize. This presented a challenge: find long-term investors that understand nature-based carbon and are willing to wait on their returns. Santander U.K. and Respira, an impact investor, met the challenge and provided partial funding, which facilitated an agreement with a British law firm that purchased some of the project’s Pending Issuance Units (PIUs) verified under the Peatland Code. Such patient investors were key to funding the upfront project costs.

At the start of the project, the collaborators agreed to allocate 10% of the project’s profits to a local community trust. A commitment that reflects rural Scotland’s community values and the collaborators’ responsibility to the local economy.

In the making

Restoration begins with an assessment of the peatland’s health, including measuring the depth of peat and the extent of degradation. A key indicator of success in peatland restoration is raising the water table. When peatlands dry out, they are more likely to degrade and emit GHGs, damaging the rich ecosystems that they support.

Approaches to raising the water table include blocking man-made drains or ‘grips’ and restoring erosion features by creating ‘bunds’ like an embankment or dam, and reprofiling or revegetating areas of bare peat. The Peatland Code provides a methodology for calculating the GHG emissions impact of these approaches by assessing the pre- and post-restoration condition of the peatland.

Impact

The restoration projects across the nine sites are delivering carbon avoidance over a 30-year project term, amounting to the equivalent of more than 44,000 tonnes of carbon dioxide removed from the atmosphere. The project is also enhancing natural habitats conserving wildlife species such as golden plover, red grouse, meadow pipit, and curlew. Healthy peatlands also naturally filter water, reducing pollutant and nutrient levels.

The project collaborators have also worked with the Scottish Land Commission and the Scottish Government to develop economic benefits beyond financial returns from carbon credits, such as employment opportunities for contractors. This provides immediate, tangible benefits for local communities while the 10% financial commitment will be invested in the community over the long-term.

Lesson

Current carbon market prices and government funds are insufficient in covering project costs alone.  Attracting equity finance requires establishing offtake agreements that provide investors with the right assurances that make them feel confident in the project’s risk management and long-term viability.

In addition to greater value in dollars spent on restoration over long-term projects, longer-term subcontracts bring more certainty to the project’s budget and allow the team to more accurately forecast and price the carbon credits it sells to companies. Having a stable cost base means it is easier to calculate the revenues needed to make the project profitable.

Photo credit: Ed Smith

Patient investors are key to big nature returns

Bringing quality nature-based projects to market takes time. The long-term nature of ecological changes and the inherent difficulty in attributing specific, measurable biodiversity outcomes to a single intervention adds to the complexity and cost.

Carbon offset creation from nature-based projects, for instance, can take decades to verify. This presented those involved in a peatland restoration project in Scotland’s highlands with a challenge: find investors who are willing to wait patiently for their returns. One way is to seek advanced market commitments from buyers through pending credit returns for carbon removals or biodiversity benefits that have higher value in the marketplace but take longer to generate, compared to renewable energy projects that can often generate credits the day they are turned on. A recent precedent is the Symbiosis Coalition, made up of Microsoft, Google, Salesforce, Meta and McKinsey & Company. These large-scale organizations provide assurance to more risk-averse investors.

CASE STUDY

Where: Eastern shores of Virginia, United States

Community, research and conservation leadership led to the largest seagrass restoration project in the world. Changes to state legislation made it possible to connect the project to the carbon marketplace– creating an additional source of funds to invest back into conservation. 

Driver:

The Virginia Coast Reserve is the longest expanse of coastal wilderness along the East Coast: 75 miles long and covering 133,000 acres of conserved and protected land. Stakeholders of the coastline, like The Nature Conservancy who own and actively manage more than 40,000 of these acres, are contributing to the natural ecosystem and local economy in more ways than one–boosting biodiversity of finfish and shellfish and protecting and restoring natural barriers that protect communities from extreme weather events like hurricanes. But there was a missing piece in this growing, vibrant ecosystem.

For more than 70 years, eelgrass, an aquatic grass that grows in shallow bays, was thought to have been eliminated along the coastal bays of Virginia due to a pathogen outbreak and the Storm of 1933. But in 1999, a small patch was found, indicating that a source of seeds was drifting, likely from Chincoteague Bay, and generated optimism that eelgrass recovery was possible.49

Eelgrass restoration has multiple benefits, including supporting commercial and recreational fisheries by acting as a nursery for fish and shellfish, preventing erosion of shorelines, and carbon sequestration. Planting eelgrass and the associated carbon sequestered in the sea bottom through eelgrass roots is called “blue carbon,” and can remain in the sea bottom for thousands of years, making it one of nature’s longest-term solutions to climate change.

Mechanism for change

The approach to scaling eelgrass restoration in Virginia is a model for how to collaborate on a complex nature-based project. The Nature Conservancy, Virginia Institute of Marine Science, The University of Virginia, and the Commonwealth of Virginia all contribute in different ways—reseeding, community engagement, measurement and monitoring, and policy changes.

This project is also a proof of concept for how to bring blue carbon projects to carbon markets. While producing carbon credits was not the driving force for this collaboration to flourish, it did present an opportunity to help the team finance their restoration efforts into the future. But positioning the eelgrass restoration project to produce carbon credits for sale required protocols to be developed and policies to change.

It started with the creation of the offset protocol, Tidal Wetland and Seagrass Restoration, on Verra’s carbon offset registry in 2015. This enabled the project to follow a standardized approach to measure, report and verify the impacts of the reseeded eelgrass on carbon removals. The second missing piece was positioning the Commonwealth of Virginia to own and sell carbon credits from nature restoration projects, which was a practice that was not recognized in its legislation. The Commonwealth of Virginia owns all subaquatic bottomlands in the state, and with that comes the legal right to the carbon stored there. Amendments to laws, has enabled the state to participate in carbon projects and requires any revenue resulting from the sale of carbon credits to be invested back into the project—to be used to implement additional monitoring and research or to cover administrative costs.

In the making

Direct seeding of eelgrass is producing credits in the restoration project, further expanding seagrass coverage in the region. The Virginia Institute of Marine Science leads the restoration practices, and The Nature Conservancy engages the community who have played apivotal role in collecting more than 72 -million seeds. These seeds have been spread onto 700 acres to help accelerate the natural spread of eelgrass, which now covers 10,000 acres in South, Spider Crab, Hog Island and Cobb Island bays. The area enrolled in the carbon market project, meeting the offset protocol criteria, is roughly 3,000 acres – including restored eelgrass and available sea bottom for restoration to expand

Impact

The project is expected to deliver the equivalent of more than 42,000 tons of carbon dioxide (CO2e) captured from the atmosphere over 30 years, raising $1.4 million for continued research and management of the eelgrass restoration in coastal Virginia.

The project’s economic benefits go well beyond carbon credits. Bay scallops were abundant in the coastal area in the early 1930s, supporting commercial fishing. But the disappearance of eelgrass resulted in the loss of the bay scallop’s preferred habitat. Successful restoration of eelgrass could pave the way for the potential restoration of scallops–a nature-built pathway for reintroducing recreational and commercial fishing. While the shellfish aquaculture industry has raised concerns that eelgrass expansion may compete with shellfish for bottom areas, new research and inclusive land use planning approaches are ensuring both conservation and the clam industry can thrive.

Lesson

Developing carbon credits through an established marketplace can take years, underlining that they are a strong option to contribute to blended finance but are often not the driving force for a successful project. Ultimately, the project should provide benefits to communities, nature and businesses through means beyond carbon credits to foster durability in nature-based solution projects.

Photo credit: Nature Conservancy of Canada

Recognizing that farmers, foresters, and fisherpersons, cannot take on all the risk in investing in building natural capital, a growing movement has started to advance sustainable farming practices through supply-chain funding and incentives. Investments are coming from buyers including PepsiCo to input providers like fertilizer companies Nutrien and Yara through a variety of mechanisms including inset programs, payment for practices and green premiums, totaling more than $1.6 billion publicly committed by companies to-date.28

Raising the bar on sustainable supply chains

Green premiums—the higher prices paid for products that meet sustainability standards—and favorable market access conditions tied to sustainability criteria play a powerful role in encouraging sustainable practices. But a key question remains: Who will pay the premium? Often, it’s assumed it will be the end buyer, but in practice, end buyers need a market signal for paying the premium. As a result, premiums in the marketplace are sporadic. Most recently, farmers growing biofuel feedstocks like canola, soybeans and corn are seeing green premiums emerge in the marketplace to prove the sustainability of their production to access markets like the EU and U.S.

Green premiums are often underpinned by certifications that more broadly encourage responsible management of resources and community well-being and set standards for associated practices. Globally, these certifications are growing in market share with 19% of all wild marine catch engaged with Marine Stewardship Council (MSC) and roughly 200,000-million hectares of global forests certified under Forest Stewardship Council (FSC).29 30

While these certifications have been critiqued for their rigor, they are proving to advance and track practice implementation on-the-ground. For example, mammal monitoring in Gabon and the Republic of Congo shows there is greater diversity in species in FSC-certified forests compared to uncertified forests.31 Such certifications remain one of the few approaches available at scale that drive market standardization around sustainable use of natural assets and enable supply chain recognition and incentivization.

These industry-based certifications often operate outside of government, but governments are also stimulating markets for nature. In the U.K., under the Biodiversity Net Gain scheme, biodiversity credit payments totaled more than $360,000 in the first year of operation (2024 to 2025).32 A market-mechanism that creates value for those managing natural assets like farmers, outside of development zones, as well as incentivizing developers to integrate nature within their new builds. Wendling Beck, a collaboration led by four farmers in Norfolk County, U.K., is demonstrating how farmers can capitalize on revenue opportunities in environmental markets, while also producing food.

CASE STUDY

Where: Wendling Beck, Norfolk County, United Kingdom

Ambition to build 300,000 homes per year in the U.K. and a complementary biodiversity offset scheme presents a new way for farmers to generate income and build resilience on their land.

Driver:

Water stress in Norfolk County is mounting. By 2045, the county could run a deficit of 472-million liters of water per day.50 This is being driven by the county’s over-licensing and extraction of water from the region’s waterways, a growing population, and the effects of climate change, as well as water pollution. Water stress presents real challenges to economic growth from yield losses on farms to the availability of water required for built infrastructure, manufacturing, and human consumption.

Compounding the need to mitigate environmental stressors such as water availability, U.K. farmers increasingly are challenged by economic strain. The EU’s Common Agricultural Policy funding will be phased out in the U.K. by 2028, and onboarding of area-specific subsidies is underway. Furthermore, increasing volatility and frequency of disruptive events from droughts to tariffs can uproot farming businesses–driving demand for more diversified and durable revenue streams beyond agri-food commodity markets.

Mechanism for change

Farmers are known for helping their neighbours and community. But managing private land is often an individual endeavor.Four farmers from Wendling Beck are challenging this norm by working with conservation organizations and the local water utility company to lead landscape-scale adoption of nature-based solutions, delivering positive outcomes for water, biodiversity, climate and the farmers’ businesses.

Grants kickstarted the feasibility phase of the Wendling Beck farmers’ adoption of nature-based solutions. This helped mitigate the risks for the farmers if new practices such as rehabilitating marginal land did not net out positively. Now, the farmers’ efforts in rehabilitating landscapes and maintaining practices are enabled through private finance, ecotourism, and environmental marketplaces. Biodiversity net gain (BNG) units are a key source of revenue under the new scheme introduced in 2024, which requires developers to deliver at least a 10% net increase in biodiversity compared to pre-development conditions.

In the making

Over 2,000 acres are being rehabilitated with diverse activities on the land, including food production, wildlife habitat, flood management and water quality improvements. These activities are the result of farmers adopting nature-based solutions, including species-rich grassland restoration. Wendling Beck farmers continue to generate revenue through farming black currents and raising livestock on grasslands, stacked with revenue from environmental credits.

To ensure there is evidence backing the rigor of the credits sold by the farmers, counterfactual baseline measurements were set, and ongoing monitoring is conducted to ensure impacts are accounted. Species count, water quality and carbon sequestration are all being monitored through remote sensing, surveys, and eDNA barcoding.

Impact

Ultimately the Wendling Beck farmers have redesigned their business model, diversifying beyond revenue generation from food production to also profit from their contribution to building natural capital in the U.K. The project’s financial model conservatively uses CAD$47,000 per biodiversity unit, resulting in a financial projection of $131 million over 30+ years in revenue for the Wendling Beck farmers. They have nearly $10 million under contract already. These credits cover 1,500 acres of the habitat creation. The project is also reverting 400 acres of land back to its natural habitat for nutrient credits for housing developments under the Nutrient Neutrality scheme. The scheme requires housing developers to offset and mitigate the net impact of nutrient runoff from new housing developments in protected water habitats through the purchase of credits. The creation of nutrient neutrality credits by the Wendling Beck farmers enables the construction of roughly 2,000 homes in Norfolk.51

Lessons

Developing a vision map and fostering alignment among stakeholders has been essential to the project’s success as the number of stakeholders grows. Nature finance projects often involve stakeholders from different sectors with different objectives. Developing a shared vision can advance a common purpose, communicate how components of a project feed into the broader objectives, and foster continuity as new stakeholders come on-board at varying stages of the project. The Wendling Beck model is scalable and nature finance streams are stackable, but it requires bridging the gap between agricultural production and environmental conservation know-how to develop practical solutions for working farms. Farmers engaged in the Wendling Beck project are now enabling other regions to do the same through a farmer-led consulting firm.

Photos: The Wendling Beck Project
Photo credit: The Wendling Beck Project

Unlocking nature’s potential through business models

Triple-bottom lineA business framework that measures success across three dimensions: People (social), Planet (environmental), and Profit (economic).
 
Companies integrate social and environmental performance into their strategies alongside financial performance, often tracking metrics for each dimension.
Sustainable products and servicesBusiness models that design, produce, and deliver goods/services with minimal negative environmental and social impact, often with positive contributions.
 
Products/services are designed for reduced resource use, circularity, ethical sourcing, and/or social benefit, marketed as sustainable options.

Over the past year, nature has climbed the priority list for corporate ESG reporting. A Stanford University Business School survey of investors found that sustainability of supply chains and natural capital are 3rd and 4th on the priority list of environmental factors they consider when it comes to a company’ ESG reporting.33 Climate action remains the top consideration in environment and in the top three topics of investor ESG engagement across the three pillars of ESG. That’s an important consideration since nature and climate issues are interconnected, especially for nature-based sectors like forestry where investors’ key interests for ESG engagement with companies is risk mitigation.34

This growing focus on nature is a response from investor demand and recognition of the risks if natural capital is not managed responsibly by businesses. Over 27 pension funds at COP16 UN Biodiversity Summit in Colombia in 2024 called out government inaction, demanding greater regulations and standards to tackle the nature crisis. Black Rock publicly stated that sustaining nature–water, soil carbon, and biodiversity–is a foundational asset class. Goldman Sachs launched a Biodiversity Bond Fund with the goal of raising more than $700 million. Norway’s Government Pension Fund Global, which manages $2.1 trillion in assets, released an assessment of nature-related risks across approximately 90% of its portfolio.35

Community driven business models that work

A growing number of investors are on the hunt for companies that can demonstrate durability in their relationship with and use of natural assets. Companies that reduce their ecosystem impact intensity and land and carbon footprint also perform better. Annualized over 5-years, the S&P 500 Biodiversity Index slight outperforms the S&P 500 Index by 0.26%.b

Rethinking conventional business models for companies and industries reliant on natural assets is an opportunity to reposition nature’s strategic role in a growing economy. But buy-in and evidence at the ground-level is essential. A Canadian Prairies-based collective of farmers, conservation organizations, and corporates are working together to understand if water stewardship plans in the Lake Winnipeg Basin is good for business. Driven by curiosity, this group is creating a model for evaluating farmer returns on investments and profit margins with nature accounting integrated, which is replicable and scalable to any farming region.

CASE STUDY

Where: Southern Manitoba, Canada

Farmers are transforming their role in conservation through water stewardship action on their farms. Farmers in southern Manitoba are demonstrating how their practices produce positive environmental outcomes in their watershed and benefit their bottom line.

Driver:

Lake Winnipeg, the 10th largest freshwater lake in the world, has deteriorated over the past 50 years due to runoff of nutrients from agriculture, urban developments, and municipal and industrial waste. This has resulted in algae blooms, hinders industrial water use, and restricts recreational enjoyment of the lake.52 This is costly to the Canadian economy and businesses that rely on the stability in water quality and quantity, notably farmers in the Lake Winnipeg basin.

Mechanism for change

A collective of Prairie-based organizations, agri-businesses, and four farms covering more than 45,000 acres came together to design a project to demonstrate how water stewardship practices are good for business.53 An applied research project is helping this collective understand how water stewardship plans and implementation helps create value for farmers, empowering them to tell data-driven stories about their contribution to positive environmental outcomes.

While funding was not the reason farmers joined the collective–it was curiosity in what the impacts of water stewardship would have on their farms and communicating those impacts–companies in the collective are working with participating farmers to test incentive models, including a mix of carbon credits and practice incentive payments. Nutrien, a Canadian fertilizer company, is working with two of the participating farms through their Sustainable Nitrogen Outcomes program. The program generates an outcomes-based payment from GHG emission reductions produced through farmers’ improved management of nitrogen fertilizers.54

In the making

The farmers are implementing practices from their water stewardship plans and working with a research team to value the return on investment for profit, productivity and the environment. Water stewardship practices were categorized and assessed under two strategies. The first involves practices specifically deployed on croplands, which includes changes in tillage, adoption of precision agriculture technologies, and crop rotations. The second focuses on the enhancement of non-cultivated natural lands on the farm property, such as restoration of marginal farmland, or enhancements to wetlands, hedgerows, and green spaces. Assessed outcomes from practices adopted in 2023 and 2024 by the four farms, include improved air quality, better soil health, and enhanced biodiversity, which were organized based on public and private good.

Impact

Farmers generated, on average, $6,900 per acre of value for the public through ecosystem services such as pollination habitat, soil health, and water regulation. The value returned to farmers, based on carbon market values in the region, was $33 per acre.

There is also a social impact. Water stewardship awareness amongst the farming community has seen tremendous uptake and interest through knowledge sharing events and farm tours. This project is also inspiring similar landscape-based efforts, driven by water stewardship, in other regions. 

Lesson

Governments play a key role in a farmers’ ecosystem of support, providing funding, extension, and standardization. However, government timelines and priorities are not always aligned with those of farmers and companies. Nonetheless, not ensuring government was part of the collective in an active role became a barrier to scaling its impact. Their absence also resulted in missed opportunities in aligning farmers’ water stewardship plans with government programming. The collective is actively working to engage government and capitalize on opportunities from collaboration.

Photo credit: Mike Nemeth

In a triple bottom line business model, multiple revenue streams can help alleviate friction between environment, community resilience, and economic growth objectives. An enabling finance and policy environment helps, too. An ecosystem-based management plan that mapped the multiple environmental, community and economic objectives of forest management, positioned the Cheakamus Community Forest surrounding Whistler, B.C., to build a resilient business model that balances revenue from ecosystem services and logging.

CASE STUDY

Where: Whistler, British Columbia, Canada

From conflict to community driven economic development, B.C.’s Community Forest Agreements opened a pathway for community-led logging that is delivering on a triple bottom line business model that is generating profit from ecosystem services like carbon sequestration, tourism and logging.

Driver:

Conflict over forest management and ownership has been a longstanding issue in B.C. In response to greater calls for First Nations and local community control over forests, the province introduced area-based forest licenses called Community Forest Agreements (CFA) in 1998. This allowed for a new type of tenure in forestry management that aligns with local communities’ values and vision for development.

Mechanism for change

Community Forest Agreements take place on provincial Crown land in B.C., where Crown land covers roughly 94% of the land base. Licenses are issued by the province to communities that develop a management plan, including commitments to make a broader social, economic and resource use impact. These management plans are critical to the success of CFAs and empower communities to build a business model that generates social, economic, cultural, and environmental benefits, ensuring that local values and priorities shape how forests are stewarded. Community Forest Agreements are also long-term—25-to-99-year agreements—granting communities the exclusive right to harvest timber and manage botanical forest products within a fixed area. 

Today, there are 62 CFAs, covering about 5% of annual harvest volumes in B.C. on public lands.55 Roughly half of these CFAs are led by Indigenous Nations or Nations working in partnership with non-Indigenous communities to oversee activities under the CFA. One example, the Cheakamus Community Forest (CCF), is a three-way equal partnership including Lil’wat Nation, Squamish Nation and the Resort Municipality of Whistler. The Cheakamus Community Forest covers 81,589 acres and manages its tenure under an Ecosystem-based Management (EBM) Plan that focuses on delivering ecosystem function, cultural values, wildfire risk mitigation and recreation/tourism values, as it plans its harvesting operations.

In the making  

The Cheakamus Community Forest’s Ecosystem-based Management Plan led to developing a carbon offset program, as forest conservation and protection was a priority for the community under the plan. The Ecosystem-based Management Plan informed the community’s forestry management approach, which includes reduced harvest levels, extended rotation ages, expanded reserves, and enhanced old-growth and wildlife habitat protection compared to standard forestry practices. Because of these practices and the establishment of an atmospheric benefit sharing agreement, the Cheakamus Community Forest operates the only community forest carbon offset project in B.C., generating revenue to fund their stewardship and climate initiatives.

The Cheakamus Community Forest surrounds the Whistler resort, one of the top tourist destinations in the province, positioning the community to build tourism experiences throughout the managed forest. But it also adds a greater responsibility to undertake large-scale wildfire risk reduction to protect Whistler’s wildland–urban interface. Recently, the Cheakamus Community Forest completed a climate change risk assessment and identified areas subject to wildfire and drought risks, which they are using to inform strategic forestry operations plans to create a diverse, climate resilient forest.

Impact

The community forest tenure contributes $1-2 million annually through timber harvesting to the Sea-to-Sky economy, supports Indigenous employment and capacity-building, and ensures transparent, community-driven governance through significant community engagement and information sharing agreements.

Since its inception in 2009, the Cheakamus Community Forest has demonstrated its environmental impact through Improved Forest Management as defined by the B.C. Forest Carbon Offset Protocol, by avoiding an estimated 10,000–15,000 tonnes of carbon dioxide emissions, annually, generating over 150,000 carbon credits to-date, which equates to about $100,000 per year from carbon sales to reinvest in forest stewardship.56

Lessons  

In a triple bottom line business model, frictions between environment, community resilience and economic growth can lead to the development of multiple revenue streams that contribute to building natural capital. The Ecosystem-based Management Plan was foundational in identifying how to create win-win opportunities for the community and set the stage for the carbon project. For others to do the same, enabling policy that positions other community forests to generate profit from their work in producing ecosystem services like GHG mitigation is required. This is an opportunity to explore under the B.C. Minister of Forests recent mandate to expand the community forest tenure system.

Photo credit: Heather Beresford

Nature accounting: Getting it on the books

Used properly, nature accounting can result in smarter projects, resilient supply chains, reduced disaster losses, and pipelines of investable natural assets–turning ecosystems into wealth drivers. But frameworks like the UN’s SEEA that already exist need more use cases to demonstrate its value informing investments.

In Canada, the Critical Minerals Strategy and major projects that fall within could be a litmus test for implementing SEEA in project assessments and plans to mobilize capital. However, inclusion of Indigenous lands, values, and knowledge in SEEA framework is critical in closing the gap between Free, Prior, and Informed Consent (FPIC) and nature accounting metrics. Indigenous rights and knowledge must be at the core of nature accounting—so economic growth builds natural capital wealth and respects those who steward it.

Embedding natural capital values in impact assessments and broader pro-growth agendas like the U.K.’s Plan for Change could ensure that new developments unlock investment for green infrastructure and proceed where water use demands can be met. Nature accounting in the Thames Valley, one of the U.K.’s most water-stressed regions, could transform how housing and infrastructure projects are assessed. Leveraging nature as an asset in development and land-use decision making can reframe local authorities and developers’ approach in weighing the economic costs and trade-offs of water management and broaden the suite of options, including grey, green and hybrid options. Finally, consider the Chesapeake Bay watershed, covering six states along eastern shores of the U.S., which faces some of the highest nutrient pollution in the country from industry, agriculture and urban runoff, causing degraded water quality, habitat loss, and economic impacts on fisheries and recreation.36 Integrating natural capital values into infrastructure and land-use planning would enable targeted investments in green infrastructure and ecosystem services. It also presents an opportunity for farmers in the region to replicate the approach taken by the farmers in the Lake Winnipeg Basin Project case study to drive investment in agricultural-based water stewardship.

Policy integration: Net-new is not necessary to move money and rules toward nature-positive growth

Integrating government funding with plans to build supply of carbon offset projects in compliance offset markets is one key area for policy integration to grow, while ensuring projects adhere to additionality principles. In Canada, offset protocols for forestry and agriculture are emerging on the Federal GHG Offset System, yet farmers, as demonstrated by the Prince Edward Island Federation of Agriculture’s case study, are generally ill-equipped to meet data quality and record keeping requirements of carbon offset projects. Leveraging existing funding programs, like the nearly $500 million Agricultural Clean Technology program is an opportunity to address this challenge. Supporting farmers in navigating how their investments in hardware and software can help them collect the necessary data to access carbon incentives could help build the supply of nature-based offset projects on the Federal GHG Offset System and improve funding program outcomes.

The explicit inclusion and prioritization of nature-based sectors and green infrastructure projects in government-led growth funds is another launch pad for integrating nature into pro-growth agendas. The forthcoming United States Sovereign Wealth Fund, the nearly-$50 billion National Wealth Fund in the U.K., and the $15-billion Canada Growth Fund are places to start in prioritizing investable nature-based and natural capital wealth projects.

Finally, improving the community resilience and potentially reduce costs in the housing development boom is an imminent policy integration opportunity. The U.K. is driving action through the biodiversity net gain scheme–an opportunity to crowd in greater private capital. In Canada, there is an opportunity to use the National Adaptation Strategy to mainstream nature-based projects in municipal housing programs tied to federal funds including, the Canada Housing Infrastructure Fund (CHIF). The CHIF has committed to investing CAD$6 billion over 10 years in housing development water and wastewater management.

Embracing disruptive technology: Enable AI to streamline nature governance and build natural capital

Nature accounting and governance is deeply complex. There are numerous protocols, frameworks and standards for measuring, monitoring, accounting, reporting, and verifying natural assets and their ecosystem services. Since this governance network of standards and framework is critical to ensure rigor in nature accounting, there is a need to simplify it to ease adoption. Learning from countries like Estonia, a leader in implementing AI to transform public administration, is an opportunity for the nature and conservation sector to advance the implementation of nature standards and frameworks like SEEA.

Nature-based projects that assess outcomes and monitor progress can also leverage AI to automatically process satellite imagery, remote sensing, sensors, and public datasets to monitor ecosystems in near real time, reducing manual data collection costs and improving accuracy. Of course, the cost of powering AI can’t be ignored. AI data centres are a growing competitor in the demand for land, water and energy. It is a strategic imperative, especially among countries with depleting natural resources like the U.K., to leverage natural capital in determining where it is possible to build a clean fleet of AI data centres. In addition to location, design features are critical in mitigate natural resource use, like rainwater harvesting or net-positive watering, which can return clean water back to neighbouring landscapes. To ease pressure on land, the use of heat offtake can also position AI data centres to have a dual purpose in, for example, greenhouse food production.


Pro-growth agendas need to do more than extract for wealth, they need to build natural assets that sustain wealth today and for the future. Nations that do so can shift control and value of natural wealth to those who steward it. Global finance is already moving, and investors are on the hunt for impactful natural capital projects that generate returns. Countries that account and build their natural capital wealth can be home to this investment. This opportunity requires a shift in government and business approaches, treating natural capital, not as a regulatory box to tick or a nice to have, but as foundational for growth – the wealth beneath wealth.

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Our project partner

Andrew Day, BC Parks Foundation

Audrey Popa, Coast Funds

Chance Cutrano, Resource Renewal Institute

Chuck Rumsey, Ecotrust Canada

Craig Harding, Nature Conservancy of Canada

Craig Losos, Nature Conservancy of Canada

Dave Secord, Salazar Center for North American Conservation

Deb Davidson, Center for Large Landscape Conservation

Donald Killorn  PEI Federation of Agriculture

Eddy Adra, Coast Funds

Glenn Anderson, Wendling Beck Environment Project

Heather Beresford, Cheakamus Community Forest

Holly Story, UK National Parks

Jane Church, Nature United

Jennifer Gunter, British Columbia Community Forests Association

Jill Bieri , The Nature Conservancy

Katie Davis, Wildlands Network

Leah Blechschmidt, Nature United

Leslie Harroun, Salazar Center for North American Conservation

Lisa Mclaughlin, Nature Conservancy of Canada

Maas, Tony, Nature United

María José González, MAR Fund

Matthew Mitchell, University of British Columbia

Maya Kocian, Earth Economics

Meg Lovett, Nature Conservancy of Canada

Mike Nemeth, Nutrien

Raine Playfair, Coast Funds

Risa Smith, IUCN/World Commission on Protected Areas

Ross Dixon, Coast Funds

Sara Aminzadeh, California Natural Resources Agency

Stephanie Walker, Revere

Stephenne Harding, Great Northern Strategies

Steven Nitah, Nature for Justice Canada

Susan Mulkey, British Columbia Community Forests Association

Canada is embarking on a major economic pivot and the country’s colleges and universities need to be a key driver in that transformation.

The postsecondary system has long been an important part of the Canadian identity. It has driven discoveries, delivered accessible, quality education and provided economic anchor institutions in communities across the country, underpinning progress and prosperity.

But the sector is not as strong as it once was, and its role in building Canada’s future is under threat. Many colleges and universities are financially unstable, and the sector is often perceived as unresponsive to economic needs; these issues are mutually reinforcing. Postsecondary institutions across Canada are closing programs and campuses and reducing staff to bring temporary budgetary relief. But broader policy and funding changes are needed to ensure the sector’s sustainability.

Like the country’s economy, postsecondary needs to pivot.

Earlier this year, we released a report as part of our Growth Project: A Smarter Path. We offered recommendations to improve the sector’s relevance, including integrating work and real-world experiences into programs and enabling private-sector investment in research and development. Over the summer, RBC Thought Leadership and partners dug deeper, engaging leaders to delve into higher education’s role in addressing Canada’s economic growth challenges.1 The message was clear: the sector is facing a crisis. 

Moved by this urgency, we identified five requirements that are critical to reforming the postsecondary sector and ensuring its relevance to Canada’s new economic strategy.

  • A strong postsecondary sector requires sufficient, stable financing.

  • Public spending on Canadian colleges and universities has been steadily decreasing.

    • Once a global leader in both funding and attainment rates2, public spending on postsecondary institutions in Canada has fallen from 1.47% of GDP at its height in 2011, to the current OECD average of 1.1%.3 Canada is not the only country to reduce spending but “few countries have seen declines as sustained and as wide-ranging as we have ,”4 according to a report.

    • As a percentage of GDP growth, public spending is $13 billion short of where it was 15 years ago.5

  • Domestic tuition has not helped make up for the growing shortfall.

    • Provincial governments essentially set tuition levels for most programs by placing caps on what providers can charge; under the current caps, most undergraduates are paying roughly what they would have paid 10 years ago for the same program.6

    • Partly as a result, Canadian students often encounter very large classes which help to subsidize more expensive programs–like medicine.

  • Unregulated international student tuition has been a lifeline for some institutions and subsidized domestic student programming

    • Between 2010 and 2023, international student tuition was responsible for 100% of new operating revenue in the sector.7

  • But in 2024, the federal government capped intake on permit applications and restricted post-graduate work permit eligibility—a major draw for many international students—to college programs linked to national labour shortages.8

    • Ontario has been hit particularly hard: six institutions are reporting more than $140 million in financial damage—losses, cuts and deficits—since 2024.9

    • By one count, there have been more than 850 program suspensions or closures at institutions since the caps were introduced, and 35 institutions reporting 100 or more job impacts.10

    • The federal list of programs eligible for post-graduate work permits has changed multiple times in the span of a year11 making it difficult for institutions to plan.

  • Without a new financial arrangement, institutions are forced to make decisions with their viability in mind, rather than the country’s prosperity. These decisions will have important implications for education quality and access, especially in rural communities where workforce shortages are already acute, as well as the country’s ability to retain top talent.

  • Increase public spending on postsecondary. That could include more provincial spending, more federal spending, or both.

    • Government funding could be tied to specific criteria or outcomes.

    • One idea raised in our cross-country conversations was to explore a new funding arrangement between the federal government and Canada’s U15–our leading research universities. Participants considered whether Canada could issue special funding to advance research in areas of national interest, potentially freeing up more provincial funding for redistribution.

    • But given Canada’s aging population and competing calls for funding in priority areas like health care, the level of investment needed is unlikely to come from government alone.

  • Another option is to create a larger role for student fees. Offering institutions more flexibility when it comes to tuition could bring a needed influx of funding that stabilizes budgets and encourages a new level of responsiveness to evolving student learning preferences and labour market needs.

    • Greater tuition flexibility would mean higher rates for those who can afford it. To maintain access for those who cannot, provinces together with the federal government should ensure robust financial assistance systems remain in place. Institutions could also be required to reserve a share of tuition revenue for means-tested student aid.

  • If international student fee revenue is to continue playing a significant role in funding institutions (as it has for colleges), Canada will need to offer more stable targets that balance a national interest in aligning immigration with forecasted skills needs with an institution’s need for longer-term institutional planning.

  • With greater financial footing, institutions can play a more strategic role in Canada’s economic pivot—advancing specific priorities. They will be better positioned to do that with mandates that respond to more distinct learner or industry needs. As we noted in A Smarter Path, “we neither need nor can we afford to have every institution offering the same menu.”

  • From afar, Canada’s postsecondary system looks highly differentiated. It includes universities, colleges, institutes, polytechnics, trade unions and employers involved in apprenticeships, as well as additional and sub-categorizations of providers in some provinces.

  • But the distinctions between some of these labels are murky. The system has long been accused of having an “academic drift” towards sameness, with the university model serving as the goal.12 These pursuits have been at least partially motivated by a need to generate revenue within the confines described above.

    • The recent growth in college bachelor’s degrees, and the push for master’s-level offerings are examples.13

    • The style of applied, industry-driven learning that Canadian colleges are known for is expensive to deliver–often requiring technical equipment and small class sizes. With a new funding arrangement, colleges could provide more of this training for Canadians of all ages, including adult learners in need of skills upgrading and youth pursuing careers in the skilled trades where there are persistent labour shortages.14

  • Within the broad categorizations of colleges and universities, institutions can lean into thematic strengths and develop unique reputations.

    • A couple of examples where this is happening to some degree: Lambton College’s collaboration with the local petrochemical industry, and Royal Roads University’s experimentation with flexible learning models.

  • Responding quickly to industry and community training needs will continue to be an essential part of Canada’s economic transition and presents opportunities for institutions with aligned mandates.

    • Plans to fast track major energy projects, for instance, will need to overcome large, technical skill gaps in rural and northern parts of the country.

    • Canada’s armed forces are suffering severe skills shortages in aviation, search and rescue and technicians, to name a few.

    • Of more than 1,000 Canadian adults surveyed recently, less than half felt they could use AI tools effectively, and less than a quarter indicated having received AI training,15 pointing to opportunities for adult upskilling programs.

  • Providing more control over tuition—and creating market competition—might naturally lead institutions toward greater differentiation and specialization.

  • Better data to inform planning would also help illuminate opportunities to specialize and do so strategically.

    • Compared to other jurisdictions, Canada tracks little information about how our education has been functioning, let alone information that would enable foresight about where it needs to go.

    • With better data, institutions could examine, for example, whether certain demographics of students have more success with some program formats than others. And when it comes to lifelong learning, institutions could gain insight into how credentials complement one another or stack together to impact career advancement in specific industries.

  • Updating institutional mandates in ways that play to and develop their unique strengths and meet specific labour force needs (for example, by concentrating on industries or learner demographics).

    • The federal government plans to launch new Workforce Alliances of employers, unions and industry groups, focused on skill development in “sectors under pressure” like energy and advanced manufacturing.

    • Postsecondary providers with relevant mandates should be at these tables, and quick to respond with relevant programming.16

  • For provincial governments: playing a coordination role, ensuring institutional mandates complement one another and align with social and economic needs, creating incentives for institutions to develop and lean into thematic strengths.

  • For the federal government: engaging the provinces in developing regulations to standardize data collection and offering consistent, up-to-date, granular data that allows for program-level analysis and student-level outcomes tracking.

  • College and university programs and services need to be more aligned with the world of work and the opportunities available to graduates.

  • Traditional education models make less sense in a context where AI and access to information is ubiquitous. We need to rethink what and how students learn and demonstrate learning; educators have traditionally focused on ensuring students can answer tough questions, we should be equally concerned with whether they can ask creative ones.

  • Analytical thinking, flexibility and agility, are the most sought-after skills among employers and have been for some time.17

    • Industry leaders emphasized entrepreneurial thinking, communication, and a basic awareness of how businesses operate.

    • All programs should be helping students develop and hone these skills, which are best gained in dynamic learning contexts that weave in real-world scenarios, for example, through applied projects, co-ops or internships.18

  • Demands for technological skills, including AI and big data, are fastest growing.19

    • Canada needs its postsecondary programs to produce graduates who are competent technology users; to know when and how to leverage AI to increase productivity, while being aware of its limitations and risks.

  • Institutions need to reckon with technology and AI themselves.

    • Canadian organizations of all kinds, including government,20 are using AI to find efficiencies and improve client experiences, motivated, in part, by the costs of inaction.21

    • Home to some the country’s top technology experts, postsecondary should be moving much faster, finding ways to integrate the latest technology in programs and supporting services to optimize student experiences, operational efficiency and program quality.

    • There are good examples in other jurisdictions: Arizona State University built proactive student support systems based on predictive analytics22 and is using AI to support student decision making with responsive career guidance.23

  • As economic volatility becomes our new normal, lifelong learning needs to as well.

    • This is a key priority for federal and provincial governments. For example, Canada is investing $450 million in reskilling,24 and Alberta’s new job strategy targets adults changing careers.25

  • More program offerings should reflect and appeal to mid-career adults in need of skills upgrading or retraining.

    • When faced with job disruptions, Canadians have tended to pursue short, career-focused programs, if any.26

    • Appealing to adults in these situations means being mindful that they will likely be keen to get back to work as quickly as possible, likely have prior learning and experience to bring to the table, as well as competing priorities (like bills to pay and children to care for). They may prefer to learn at their own pace and according to their own schedule.

    • Competency-based programs have taken off in the U.S. but are rare in Canada. These programs award credentials based on demonstrated mastery, not the amount of time enrolled in a program.27

  • Rethinking program content, delivery models, assessments, and instructor roles to optimize learning in a modern context.

  • Ensuring every program offers applied learning opportunities that develop transferable skills like problem-solving, communication, technology literacy and entrepreneurial thinking.

  • Leveraging technology and AI. For example:

    • Training faculty and staff to:

      • Effectively integrate AI as part of the student experience (pen and paper assessments to avoid “cheating” with AI are missing the point)

      • Identify places where AI can relieve their own workload.

    • Offering technology-enhanced learning opportunities (e.g., hybrid and distance learning, simulations) and support services.

  • Serving the needs of lifelong learners by presenting all credentials as steppingstones rather than discrete offerings.

    • Expecting that students will return for education multiple times throughout their lives and making that process straightforward and rewarding—this could include experimenting with new models like competency-based education.

  • Being more responsive and modern requires more institutional flexibility.

  • Externally, regulatory bodies and policy frameworks can be overly restrictive and work against the changes described above. As an example, Ontario’s funding model discourages colleges from developing part-time programs that would appeal to adults in need of upskilling28 and across Canada, qualifications and credentials frameworks centered on instructional hours discourage institutions from experimenting with individually-paced programs like competency-based education.

  • Internally, risk-averse institutional cultures, fragmented governance environments and restrictive collective agreements often layered with tenure, can impede leaders’ ability to take decisive action.

    • The processes involved with developing programs, revamping them or shutting them down to evolve in step with the world outside institutional walls are all very much informed (and paced) according to the structures inside those walls.

A roundtable participant captured the situation well:

[Institutional leaders] are being asked to run institutions like businesses, but are still operating in a legal and regulatory structure designed for a public service model. It’s completely mismatched.

80% of revenue and 85% of expenses are controlled by someone else, two governing boards and four sets of stakeholders think they’re the majority shareholder—but none of them are. The institution is accountable to 200+ pieces of legislation. Meanwhile, industry is moving in weekly cycles. It’s no wonder industry is losing faith in us. We’re bordering on obsolescence—not because we aren’t capable, but because we’re structurally constrained.

  • Provincial governments could engage postsecondary leaders to understand and dismantle regulatory roadblocks, including exploring the ways in which professional regulatory bodies facilitate or inhibit responsiveness.

  • Postsecondary leadership together with labour unions could review collective agreements and/or governance and human resource policies—striving for balance between job protection and institutional viability—drawing on union experience and expertise to outline new expectations like modernized job tasks and teaching methods.

  • Together, Canadian governments, postsecondary institutions and businesses need to do a better job of ensuring research advances national priorities, supporting Canadian communities and businesses with timely innovations.

  • Compared to other advanced countries, including the U.S. and Japan, or the OECD average, Canada’s spending on research and innovation is persistently low.29

    • A key reason for this is our business sector: largely made up of small- and medium-sized enterprises without research budgets30 and branches of multi-national companies whose head offices in other jurisdictions are driving innovation.

  • On the other hand, Canadian postsecondary spending on research is high compared to global peers.31 Essentially our postsecondary sector is carrying the weight here; and given the stakes, could be oriented more strategically.

  • Traditionally, success in postsecondary research is measured in terms of publication output and citations;32 often, government grants unintentionally encourage similar ideas and incremental change.

  • Research often ends at the ideation phase with little incentive to push toward patents or commercialization; promising innovations and innovators go elsewhere, like Silicon Valley.

  • For many institutions (and departments within them) advancing innovations, and ensuring they go beyond the ideation phase, will require a reorientation—from exploring topics to advancing goals—and an openness to taking on research contracts with industry partners who have defined milestones and clear deliverables in mind.

  • This is not to say there is no place for inquiry-driven research. Nobel Prize winning research by Geoffrey Hinton33 or Arthur McDonald34 might not have been possible without such freedom. But mission-driven research needs to take new precedence.

  • Updating federal granting to incentivize research that produces intellectual property (IP) or advances national priorities.

  • Focusing institutional research strategies (as part of updating mandates) to advance specific industries or public interests like health care, national defence, or food security.

  • Rewarding innovation and community impact in tenure and promotion processes.

  • Experimenting with new approaches and collaborations—Canada’s defence spending commitments, for instance, offer a prime opportunity. A new Bureau of Research, Engineering and Advanced Leadership in Innovation and Science (BOREALIS) could draw on academia and industry strengths to drive innovation, much like the Advance Research and Invention Agency (ARIA) in the U.K. or Defence Advanced Research Projects Agency (DARPA) in the U.S.–both of which fund high-risk, high-reward projects, free from the typical political constraints and academic processes.  

  • Industry coming to the table with more funding for research contracts.

Canada is relying on its postsecondary sector to supply the skills and innovation needed for an economic transformation. Ensuring, the sector is up to the task will hinge, crucially, on a new funding arrangement. And that, may hinge on public support. Modernizing as set out above will help the sector grow social license.

But this task should not fall entirely on postsecondary and policy makers.

Employers, expecting to benefit, need to be ready to engage and collaborate too: sharing information about job opportunities and skill expectations, shaping curricula and evaluating competencies, developing work-integrated learning opportunities, and funding research and innovation.

Educators in K-12 have a role to play as well. It is time guidance counsellors shed the outdated notion that skilled trades are less valuable than university degrees, and that degrees and diploma are the end point of education.

Upskilling is no longer optional. It must be seen and described—at levels of the education system and in the labour market—as the new baseline for success.

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