Created on:
August 11, 2026
Beyond ALTO: Should Canada Spend $90 Billion on a Railway—or Build the Strategic Industries of the Future?
Canadian Forces Base Esquimalt
Canada is preparing to make one of the largest infrastructure investments in its history. ALTO, the proposed high-speed passenger railway connecting Toronto, Peterborough, Ottawa, Montreal, Laval, Trois-Rivières and Quebec City, promises to transform transportation through Canada’s most populous economic corridor. The network would extend approximately 1,000 kilometres, with trains potentially travelling at speeds of up to 300 kilometres per hour. Its early capital-cost estimate is between C$60 billion and C$90 billion in 2024 dollars, a planning range rather than a final project budget.
The case for better intercity transportation is substantial. Canada has underinvested in passenger rail for decades. Faster connections among Toronto, Ottawa, Montreal and Quebec City could reduce travel times, provide an alternative to short-haul aviation and highway travel, improve labour mobility and encourage economic development around stations.
The question is therefore not whether high-speed rail could provide benefits. It almost certainly could. The more consequential question is whether those benefits justify the extraordinary amount of financial, industrial and natural capital that Canada is contemplating committing to a single transportation system. At the scale presently under discussion, ALTO ceases to be merely a railway project. It becomes an exercise in national economic strategy and that requires Canada to ask a question governments too rarely ask when evaluating megaprojects:
What else could Canada build with the same money, and what productive assets might it sacrifice in order to build the railway?
One alternative deserves considerably more attention. Instead of seeing the Toronto–Quebec City corridor primarily as the geography for a new railway, Canada could view the broader Windsor–Toronto–Ottawa–Montreal–Quebec City axis as the foundation for one of the world’s leading advanced-mobility, aerospace, defence and dual-use technology corridors.
For a fraction of ALTO’s projected capital cost, Canada could accelerate an integrated industrial ecosystem encompassing advanced aircraft, autonomous aviation, drones, artificial intelligence, electric and hybrid propulsion, batteries, advanced automotive manufacturing, satellites, telecommunications, secure digital systems, defence technologies and next-generation transportation infrastructure.
This is not an argument for replacing trains with flying taxis. It is an argument about something considerably larger: whether Canada’s next generational investment should primarily purchase a transportation system or build national technological, industrial and defence capability.
The strongest argument for such a strategy is that Canada would not be attempting to create an industry from nothing. It would be scaling industries in which the country already possesses substantial international capabilities.
Canada’s aerospace industry contributed approximately C$34.2 billion to GDP and supported 225,000 jobs in 2024. Aerospace manufacturing and maintenance, repair and overhaul generated approximately C$45 billion in revenue, making aerospace one of Canada’s most economically important and research-intensive advanced-manufacturing industries. Much of that capability is concentrated in Ontario and Quebec.
Quebec accounted for approximately 61 per cent of Canadian aerospace manufacturing employment in 2024, while Ontario accounted for approximately 23 per cent. Ontario also represented a substantial share of Canadian aerospace maintenance, repair and overhaul employment. Montreal already possesses one of the world’s most significant aerospace clusters. Bombardier, Pratt & Whitney Canada, CAE, Bell Textron Canada and a sophisticated network of suppliers, engineering firms, research institutions and universities provide capabilities ranging from aircraft design and propulsion to simulation, avionics, structures, training and manufacturing.
Ontario brings a different but complementary set of industrial strengths. Its automotive sector provides large-scale manufacturing expertise, robotics, tooling, supply-chain integration, batteries, electric propulsion and advanced materials. Toronto and Waterloo possess major artificial-intelligence, software and technology ecosystems. Ottawa contributes telecommunications, secure communications, defence technologies, satellite systems, sensors, command-and-control expertise and systems integration. Ontario is also home to important Canadian space capabilities, while the Ottawa–Montreal axis has become increasingly relevant to drone, counter-drone and autonomous-system development.
Individually, these industries are important. Combined, they could become something strategically much more valuable. That is because the next revolution in aviation, defence and transportation will increasingly occur at their intersection.
The aircraft and autonomous systems of the future will increasingly resemble integrated technology platforms rather than conventional mechanical machines. Propulsion will become more electric or hybrid. Flight controls will become increasingly autonomous. Aircraft will communicate continuously with terrestrial and satellite networks. Artificial intelligence will assist navigation, mission management, sensor processing, predictive maintenance and increasingly autonomous operations. Sensors will continuously map the operating environment. Secure communications will connect aircraft with airspace-management, logistics and command systems. Advanced batteries, electric motors and power electronics developed partly for automobiles will migrate into aviation. Automotive manufacturing techniques may enable certain classes of aircraft and drones to be produced at volumes historically unfamiliar to the aerospace industry. Space systems will become increasingly important for communications, positioning, navigation, surveillance, Earth observation and traffic management.
The boundaries separating aerospace, automotive manufacturing, telecommunications, artificial intelligence, defence and space are therefore becoming less distinct. Canada possesses internationally relevant capabilities in every one of these industries and few countries do.
Therefore, the strategic opportunity is not simply to develop an electric aircraft or attract an eVTOL manufacturer, it is to build an industrial ecosystem around the convergence itself.
Public discussion of advanced air mobility frequently focuses on futuristic images of small electric aircraft carrying passengers above congested cities. That description dramatically understates the potential market.
Advanced air mobility encompasses a much wider family of technologies: autonomous cargo aircraft, electric and hybrid regional aviation, remotely piloted aircraft systems, drones, military uncrewed systems, emergency-response aircraft, medical logistics, wildfire surveillance, critical-infrastructure inspection and potentially new forms of northern transportation.
Canada is already laying parts of the regulatory foundation. New federal rules that came into effect in November 2025 expanded the framework for medium-sized drones and certain lower-risk beyond-visual-line-of-sight operations. The National Research Council has also established a Drone Innovation Hub in the Ottawa and Mirabel areas to advance research, testing and commercialization for defence, security and dual-use applications.
For Canada, geography creates particularly compelling applications. The country possesses enormous distances, remote communities, northern transportation challenges, difficult terrain and expensive conventional infrastructure requirements. An autonomous cargo aircraft capable of moving supplies several hundred kilometres would be more than an interesting technological demonstration in Canada; it could help solve a genuine transportation challenge. Remotely piloted aircraft could also strengthen wildfire detection and suppression efforts. Across the country, autonomous systems could inspect pipelines, electrical infrastructure, railways, highways and telecommunications networks. In remote communities, specialized aircraft could deliver medical supplies and other essential goods. Meanwhile, drones and satellite-enabled systems could help farmers monitor crops, apply inputs with precision, assess soil conditions, manage livestock, and detect disease or water stress earlier.
Advanced mobility should therefore be understood not as one speculative passenger market, but as an enabling industrial platform with applications across transportation, public safety, agriculture, natural resources, healthcare, infrastructure, defence and national security.
The strategic argument for an advanced-mobility corridor has become stronger because Canada now has a formal Defence Industrial Strategy (DIS).
Launched in February 2026, the strategy recognizes that Canadian sovereignty, military readiness and economic security depend on a stronger domestic industrial and technological base. It introduces a BUILD–PARTNER–BUY framework: build domestically where Canada possesses strategic strengths, partner with trusted allies where collaboration provides the best outcome, and purchase abroad where necessary while seeking Canadian industrial, technological and sovereign benefits.
The strategy’s list of sovereign capabilities is remarkably aligned with an advanced-mobility initiative. It includes:
This alignment is not incidental. An Ontario–Quebec advanced-mobility corridor would translate many of the DIS’s principal objectives into action within the region already home to Canada’s deepest concentration of aerospace, automotive, artificial-intelligence, telecommunications and space capabilities. By connecting the civilian transportation economy with the defence-industrial base, the corridor could support shared testing, certification and manufacturing infrastructure serving both markets. Early demand could come from the Canadian Armed Forces (CAF), Canadian Coast Guard (CCG), public-safety agencies, provincial governments and commercial operators, positioning them as foundational customers for Canadian technologies. The resulting intellectual property could be adapted across civilian and military applications, while Canadian companies would gain a clearer pathway from laboratory research to domestic procurement, scaled production and allied exports.
This is the crucial point: the proposed corridor would not require Canada to invent a second industrial strategy alongside its defence policy; it would provide a practical geographic and industrial platform through which the existing Defence Industrial Strategy could be implemented.
Dual-use technologies create economic and strategic value precisely because they can serve both civilian and defence markets. A secure communications system designed for military aircraft, for example, may also support emergency-response aviation, remote transportation and critical-infrastructure operations, while autonomous navigation developed for commercial cargo aircraft can strengthen military uncrewed systems. Sensors used in crop monitoring or wildfire detection can be adapted for surveillance and reconnaissance, just as satellite connectivity for remote aviation can support Arctic operations, disaster response and national-security missions. The same crossover applies to artificial intelligence, where predictive-maintenance systems can improve both airline efficiency and military fleet readiness, and to electric propulsion, where advances in civilian aviation may support defence logistics, surveillance and training platforms. This ability to move technologies across sectors gives companies access to markets far larger than Canada’s relatively limited domestic defence sector. By serving commercial aviation, agriculture, public safety, telecommunications, natural resources and allied defence customers, Canadian firms can achieve greater scale, diversify risk and establish a much stronger path to long-term growth.
Dual-use investment can therefore produce a reinforcing cycle. Civilian demand creates volume and commercial discipline. Defence demand supports advanced performance, resilience and security requirements. Public procurement provides an early market. Commercial sales reduce dependence on government contracts. Exports expand production. Expanded production strengthens the domestic supply chain.
As such, the resulting industrial capacity provides Canada with greater ability to respond during a crisis. This is not merely a matter of economic development; it is a form of strategic insurance. A country that can design, manufacture, maintain, repair and upgrade its own critical systems possesses more freedom of action than one dependent on foreign suppliers for every component, software update and sustainment decision.
Canada has often been effective at generating research and prototypes but less successful at turning them into scaled Canadian companies. The missing link is frequently not invention, but demand.
Private investors are reluctant to finance expensive certification and production facilities without credible customers. Government departments are reluctant to buy from firms whose technologies have not yet reached scale. Promising companies then sell their intellectual property, relocate to larger markets or fail during the transition from demonstration to production. Strategic procurement can help break this cycle.
Canada’s DIS acknowledges the need for predictable demand signals, earlier engagement with industry, joint development, more rapid procurement of successful Canadian innovations and greater protection of Canadian intellectual property. It also proposes substantial support for small and medium-sized defence businesses, research commercialization and defence exports.
An advanced-mobility corridor could translate those principles into a series of defined missions:
Government would define the operational problem, establish testing and certification pathways, provide access to appropriate ranges and environments, and commit to purchasing successful solutions. Companies would be required to invest, perform, protect Canadian intellectual property, develop domestic supply chains and pursue allied export markets. It is a mission-oriented industrial policy rather than an open-ended corporate subsidy.
Canada should consider creating a formal Canadian Advanced Mobility and Defence Corridor extending from southwestern Ontario through Toronto, Waterloo and Ottawa to Montreal, Mirabel and Quebec City. Each region could contribute different capabilities:
Universities and colleges throughout the corridor could develop specialized engineering and technical programs. Canadian airports could become demonstration and certification centres. Dedicated test corridors could support autonomous cargo operations. Satellite networks could provide resilient communications, navigation and surveillance. The CAF and CCG could become early customers for appropriate autonomous logistics, surveillance, training and remotely piloted systems. Federal and provincial governments could use procurement to accelerate commercialization. The corridor could also integrate existing industrial lands, airports, research campuses and manufacturing facilities, reducing the need for a single continuous greenfield right-of-way through productive rural territory.
The objective would be straightforward: make Ontario and Quebec one of the world’s leading regions for designing, manufacturing, testing, operating and sustaining the next generation of aircraft, autonomous systems and secure mobility technologies.
There is no official government estimate for creating such an ecosystem. Any comparison with ALTO must therefore distinguish clearly between the project’s published planning estimate and an illustrative industrial-policy model. Nevertheless, the likely order of magnitude can be assessed.
A comprehensive 10-to-15-year advanced-mobility and dual-use industrial strategy could involve approximately C$15 billion to C$30 billion in combined public and private investment. Of that total, an estimated C$4–7 billion could support new aircraft, autonomous aviation, remotely piloted systems, technology demonstrators and certification programs. Investment of C$2–4 billion could accelerate the development of batteries, hybrid systems, electric propulsion, hydrogen technologies and power electronics, while a comparable amount could advance artificial intelligence, autonomous flight systems, avionics, sensors, electronic warfare and secure communications. Between C$3 billion and C$6 billion could finance airport infrastructure, charging systems, secure testing facilities, advanced-mobility transportation nodes, and rural or northern demonstration corridors. A further C$2–4 billion could support advanced manufacturing and the adaptation of Canada’s automotive and aerospace supply chains. Finally, C$2–5 billion could accelerate satellite connectivity, navigation, space-based services and next-generation airspace-management technologies.
These figures are illustrative allocations, not formal government costings or forecasts. Their purpose is to demonstrate the potential scale of such an initiative. Even at the upper end, an ambitious C$30-billion program would represent approximately one-third to one-half of ALTO’s current early capital-cost range.
The public sector would not need to finance the entire amount. A federal–provincial commitment of approximately C$5–12 billion, structured through infrastructure investment, research funding, repayable contributions, procurement commitments, loan guarantees, equity participation and matching programs, could mobilize substantially greater private and institutional investment.
This financing structure highlights an important distinction between the two models. Large transportation infrastructure projects generally require governments to assume a substantial share of both the capital burden and project risk. A well-designed industrial strategy, by contrast, can use public funding to leverage private investment, institutional capital and export financing.
Such an approach would not be risk-free. Some technologies would fail, development timelines would slip, and certain advanced-mobility concepts would never become commercially viable. The objective, however, would not be to place a single enormous wager on one aircraft, technology or company. It would be to build a diversified industrial platform around capabilities that Canada will increasingly require across multiple civilian and defence markets.
Another cost must be incorporated into the ALTO calculation as the project moves from conceptual planning toward a defined alignment: productive agricultural land. A dedicated high-speed railway is not simply a line drawn on a map. It requires a continuous right-of-way, together with access roads, bridges, grade-separated crossings, drainage works, power and signalling infrastructure, maintenance facilities and other supporting installations. Its physical footprint therefore extends well beyond the tracks themselves.
ALTO is presently studying a corridor approximately 10 kilometres wide, which will eventually be narrowed to a right-of-way averaging roughly 40 to 60 metres. Because the final alignment has not yet been determined, the precise location and extent of the project’s agricultural footprint remain unknown. Even at this stage, however, Transport Canada recognizes that infrastructure of this scale can affect both agricultural land and farming operations.
When linear infrastructure crosses agricultural regions, the consequences extend beyond the soil physically occupied by the railway. Farm parcels may be divided, access between fields complicated, and drainage or irrigation systems altered. Crossings used by livestock and farm machinery may become constrained, while irregularly shaped parcels can become less efficient to cultivate. Construction activity may also compact soil and interrupt farming operations. Over time, neighbouring properties can face additional development pressure, while productive land permanently converted to infrastructure ceases to produce food altogether.
Given that the final alignment, environmental assessment and property requirements remain unresolved, the precise agricultural impact of ALTO cannot yet be stated responsibly. Attaching an unsupported acreage figure to the project would therefore be premature. This uncertainty does not justify excluding agricultural land from the strategic calculation; rather, it underscores the need to measure that impact carefully before irreversible decisions are made.
The broader agricultural context demonstrates why such an assessment matters. Ontario and Quebec together reported approximately 19.5 million acres of total farm area in the 2021 Census of Agriculture. Between the 2016 and 2021 censuses, Ontario’s total farm area declined by 4.7 per cent and Quebec’s by 4.1 per cent. Although these figures do not establish how much land ALTO would affect, they demonstrate that the agricultural land base through which the railway may pass is already under pressure.
Ontario’s planning framework reflects this concern by treating new or expanded infrastructure in prime agricultural areas as a non-agricultural use requiring explicit consideration. The policy recognizes a basic reality: productive soil is a finite asset. Once high-quality farmland is paved, fragmented or permanently converted, restoring it is difficult and frequently impossible. This creates an important asymmetry between financial and natural capital. Money spent on infrastructure can eventually be replaced; prime agricultural soil cannot.
Prime agricultural soil cannot simply be manufactured somewhere else. Its strategic value becomes even more significant in an era of climate volatility, geopolitical instability, disrupted supply chains and growing concern about national resilience. Food production is itself a form of strategic infrastructure. Canada has become increasingly comfortable treating energy, critical minerals, telecommunications, semiconductors, aerospace and defence manufacturing as matters of national security. Agriculture deserves the same consideration.
Productive farmland should therefore not be regarded merely as undeveloped real estate awaiting a supposedly higher-value use. It is a renewable economic asset that produces food year after year, supports rural communities, anchors the agri-food supply chain and strengthens Canada’s position as a major agricultural exporter. The loss or fragmentation of farmland would be an unintended but foreseeable consequence of constructing a new surface corridor. That cost should be explicitly identified and valued rather than treated as a secondary local-planning concern.
The alternative industrial strategy offers a fundamentally different relationship with agriculture. Rather than displacing productive farmland, an advanced-mobility corridor could help develop technologies that make Canadian farming more productive, precise and resilient.
Drones, satellites, sensors and artificial intelligence could enable farmers to monitor crops, soil moisture, pests, disease, livestock and water use more effectively. Autonomous aircraft could survey large agricultural areas quickly, allowing producers to identify emerging problems earlier and respond more efficiently.
Improved rural communications could connect farms, machinery and sensor networks, while small cargo aircraft could transport urgent veterinary supplies, replacement parts and high-value agricultural products. The same technologies used to monitor wildfires, floods and severe weather could also help protect rural communities, farmland and critical infrastructure.
Advanced materials, robotics and autonomous systems originally developed for aerospace or defence could be adapted for agricultural machinery and operations. Aerospace, space, telecommunications and artificial intelligence are therefore not separate from the future of farming; they can become essential components of the next generation of agricultural productivity.
Canada should pursue an economic strategy that builds new technological capabilities while protecting and strengthening the natural productive assets it already possesses.
Let us assume, for the purposes of comparison, that ALTO ultimately costs approximately C$75 billion, near the midpoint of its current planning range. That figure raises a fundamental question: what alternative national capabilities could Canada create with the same capital?
Let us consider an illustrative investment portfolio. Between C$20 billion and C$25 billion could establish an advanced-mobility and autonomous-aviation ecosystem, while a further C$10–15 billion could expand Canadian aerospace and defence manufacturing. Approximately C$10 billion could strengthen Canada’s space sector, satellite communications, Earth observation, and sovereign positioning, navigation and timing capabilities.
An additional C$10 billion could accelerate the transformation of Canada’s automotive, battery and advanced-manufacturing sectors. Another C$5–10 billion could advance artificial intelligence, autonomy, telecommunications, cybersecurity and secure digital infrastructure. Even at the upper end of these estimates, the entire portfolio would total approximately C$70 billion, remaining within the capital envelope contemplated for a single railway.
The physical footprint of this alternative would also be fundamentally different. Much of the investment could be concentrated at existing airports, industrial areas, manufacturing facilities, research campuses, military establishments and previously disturbed lands rather than requiring a continuous new surface corridor.
This comparison does not establish that every alternative investment would produce a higher return than ALTO. It demonstrates, however, why a rigorous opportunity-cost analysis is necessary.
The appropriate question is not simply: “does ALTO produce economic benefits?” Almost every major infrastructure project produces some form of economic benefit.
The more demanding question is: “would investing C$60–90 billion in ALTO, and accepting its associated land-use, fiscal and industrial consequences, produce greater long-term national value than the best alternative uses of that capital and land?” That is the standard against which a project of this scale should be evaluated.
A credible strategic assessment should not dismiss ALTO’s potential benefits. Indeed, the federal government has projected that the railway could create up to 51,000 jobs during construction, contribute as much as C$35 billion to GDP and reduce transportation emissions over its operating life. Those projections will require independent scrutiny as the project design, ridership assumptions, financing structure and operating model become clearer, but they belong in a fair comparison.
A successful railway could improve productivity, reduce travel times, stimulate development around stations, reduce highway congestion and provide an attractive alternative to short-haul aviation. As such, a high-speed rail may be justified on some or all of these grounds, but identifying benefits is not the same as establishing strategic superiority.
The relevant comparison is not between ALTO and doing nothing; it is between ALTO and the most productive alternative portfolio of infrastructure, industrial, defence, agricultural and technological investments available to Canada.
Infrastructure and industrial capability create fundamentally different, though equally important, forms of national wealth. A railway provides an enduring domestic transportation asset that can improve mobility, connectivity and productivity along the geography it serves.
An industrial ecosystem creates a broader range of productive assets, including companies, intellectual property, engineering expertise, manufacturing capacity and exportable technologies. Unlike fixed transportation infrastructure, an aircraft, autonomous system, satellite payload, secure communications technology or sensor developed in Canada can potentially be sold around the world. Industrial capability can therefore improve domestic productivity while also strengthening exports, defence readiness, technological sovereignty, crisis response and geopolitical influence.
Agricultural land represents a third form of national productive capacity. It supports food security, sustains rural economies and generates renewable economic output across generations. Any serious assessment of national investment must therefore consider not only the infrastructure being created, but also the industrial capabilities and agricultural assets that could be strengthened, or lost, in the process.
The comparison therefore involves at least four forms of national capital:
Good economic statecraft should account for all four.
For several decades, Western economic policy rested on the assumption that critical technologies, products and components could be obtained reliably through globally efficient supply chains. Strategic competition, war, protectionism, tariffs, pandemics and repeated supply-chain disruptions have weakened that assumption by exposing the risks of dependence on distant suppliers.
The United States, Europe, Japan, South Korea and China increasingly treat semiconductors, batteries, artificial intelligence, aerospace, autonomous systems, space, critical minerals and defence production as strategic capabilities rather than ordinary commercial sectors. Industrial policy is therefore no longer an exception to economic policy; it is becoming a central instrument of national power.
Canada cannot respond to this environment solely as a consumer of technologies developed and manufactured elsewhere. It must determine where sovereign or strategically important industrial capabilities should be maintained, with aerospace, autonomous systems, space, secure communications and advanced manufacturing ranking high among the priorities.
Fortunately, Canada is not starting from nothing. Much of the initial cost of entering these sectors has already been paid through the development of Canadian companies, experienced engineers, research universities, automotive manufacturing infrastructure, telecommunications and artificial-intelligence capabilities, and an established aerospace supply chain. Canada also benefits from privileged access to the enormous American market and deep integration into North American and allied security structures through NORAD, NATO and the Five Eyes.
The strategic challenge is to connect, scale and direct these existing assets before other countries establish dominant positions in the emerging industries that will shape future economic and military power.
Canada is entering a period of substantial defence recapitalization. Protecting and operating across its vast northern territories will require stronger surveillance, communications and logistics capabilities, supported by remotely piloted systems, autonomous technologies and resilient satellite connectivity.
Meeting these requirements will also depend on greater domestic defence production, secure supply chains and the capacity to maintain critical equipment in Canada. The technologies involved must be capable of operating reliably in harsh climates, across immense distances and beyond the reach of conventional terrestrial communications networks.
Advanced aviation aligns directly with these operational demands. Autonomous cargo aircraft could eventually support northern logistics, while long-endurance remotely piloted aircraft could strengthen Arctic surveillance. Resilient satellite communications would enable operations beyond terrestrial networks and improve connectivity across remote regions.
Supporting technologies are equally important. Artificial intelligence could improve sensor processing and mission management, while advanced manufacturing could strengthen Canada’s ability to sustain and modernize military platforms domestically. Secure navigation systems could reduce vulnerability when satellite signals are disrupted, and counter-drone technologies could protect military bases, critical infrastructure and major public events. Advances in electric and hybrid propulsion could also have applications across both civilian and defence platforms.
The government’s Defence Industrial Strategy identifies aerospace, space, secure digital systems, sensors, communications and uncrewed systems as sovereign capability areas. An Ontario–Quebec advanced-mobility corridor could integrate these priorities into a coherent industrial platform serving Canada’s defence, Arctic and civilian requirements.
Defence procurement is often discussed as though military capability begins when the government signs a contract and is complete when the equipment is delivered. That definition is far too narrow.
Real defence capability includes the ability to maintain, repair, modify and upgrade equipment throughout its service life. It also requires access to software, technical data and intellectual property, supported by engineers and technicians who understand the systems they operate. Security-cleared workers, secure facilities, training programs, simulation tools and test infrastructure are equally essential.
Readiness also depends on domestic suppliers capable of producing replacement components during a crisis and on sufficient manufacturing depth to increase production when operational demands rise. Without those foundations, Canada may own advanced equipment without possessing the sovereign capacity to sustain or expand its use.
These are precisely the capabilities that a dual-use industrial corridor could help create. Civilian production can sustain skilled workers, suppliers and facilities during periods of lower military demand, while defence requirements can push commercial technologies toward higher standards of security, resilience and performance.
Allied exports would provide the scale needed to support continued investment and production. Domestic sustainment, in turn, would preserve sovereign control over critical military capabilities.
The result would be more than a collection of individual companies. It would be an industrial mobilization base capable of supporting Canada in both peacetime and crisis.
Food production belongs within the broader definition of national security. Canada’s ability to feed itself and remain a major agricultural exporter ultimately depends on a finite base of productive land.
Successful farming requires far more than soil. It also depends on transportation, energy, communications, labour, equipment, fertilizer, water, processing infrastructure and reliable access to markets. Although these inputs can improve productivity and resilience, none can indefinitely compensate for the permanent loss of productive farmland.
An intelligent national strategy should therefore expand Canada’s technological, transportation and defence capabilities without unnecessarily destroying productive capacity in another strategic sector. Economic development should strengthen the country’s overall resilience rather than advance one national priority at the expense of another.
Preserving farmland is not an exercise in nostalgia; it is a form of resilience policy. A government concerned with securing supplies of ammunition, critical minerals, satellite capacity and advanced electronics should be equally attentive to protecting the land that sustains domestic food production.
The ALTO debate contains a broader strategic question about how Canada defines progress. The country has studied high-speed rail in the Quebec–Ontario corridor for more than half a century. A House of Commons transport committee report identified a Canadian Transport Commission study conducted in 1970 as the first major examination of the concept and noted that several additional studies followed.
This long history does not, by itself, invalidate the current project. Conditions evolve, populations grow and technologies improve. A project that could not be justified in one period may become viable in another. Nevertheless, more than 50 years of discussion should prompt a difficult question: is Canada finally implementing a long-delayed vision of the future, or is it committing generational resources to a future imagined by policymakers decades ago?
To borrow Canada’s most familiar hockey metaphor, successful strategy requires skating to where the puck is going, not where it has been. For more than half a century, the national transportation debate has repeatedly returned to the same corridor, the same mode and the same basic proposition: faster rail service between Canada’s largest central cities.
During that period, the technological frontier has moved considerably. The emerging strategic economy is increasingly shaped by autonomous systems, artificial intelligence, software-defined vehicles, satellites, secure communications, cyber resilience, advanced sensors, robotics, hybrid propulsion, novel materials, distributed manufacturing and technologies serving both civilian and defence markets. These are not peripheral industries. They are likely to shape transportation, warfare, agriculture, communications, logistics and economic power through the middle of this century.
The relevant question, therefore, is not whether high-speed rail represented an ambitious vision in 1970, 1995 or 2010. It is whether investing as much as C$90 billion in it today offers the best means of positioning Canada for 2040, 2050, and beyond. A country cannot build its future simply by completing the most attractive project inherited from its past.
Canada’s transportation challenge is real. The strategic mistake would be to define that challenge exclusively through the technologies, infrastructure models, and travel patterns of the previous century.
High-speed rail can move large numbers of passengers efficiently between fixed urban centres, which is a legitimate and valuable function. Advanced mobility addresses a different set of requirements, including remote access, flexible logistics, emergency response, northern operations, distributed freight, infrastructure inspection, and transportation in areas where fixed surface infrastructure would be prohibitively expensive.
Because they serve different purposes, the two modes are neither direct nor complete substitutes. The argument is not that autonomous aircraft will carry the same passenger volumes as a high-speed railway between Toronto and Montreal. The central issue is whether Canada’s national investment strategy reflects the transportation, industrial and security requirements it will face in the future, rather than simply advancing the project governments have debated for the longest period.
A country can spend enormous sums solving yesterday’s problem exceptionally well while leaving tomorrow’s strategic requirements underfunded. A rigorous opportunity-cost assessment is intended to prevent precisely that outcome.
Canada does not necessarily have to choose between transportation infrastructure and industrial development. If ALTO proceeds, however, Ottawa should adopt a far more ambitious vision of what the corridor could represent.
The Toronto–Ottawa–Montreal axis already contains Canada’s most significant concentration of aerospace, artificial intelligence, telecommunications, advanced manufacturing, space and defence capabilities. Rather than simply connecting these cities with faster trains, Canada should pursue a broader strategy that connects and strengthens their economic, technological and industrial assets.
Under this approach, high-speed rail would become one component of a larger economic and defence-industrial corridor rather than its defining national project. Achieving that objective would require aligning ALTO with:
Major project expenditures should be structured to strengthen Canadian productive and strategic capacity. Specific objectives should include:
The ultimate test should not simply be whether Canada can construct the railway. It should be whether the investment strengthens the country’s long-term productive, technological and strategic capacity.
If ALTO proceeds, route planning should establish a strong presumption in favour of avoiding prime agricultural land wherever technically and economically reasonable. Farmland protection should be incorporated into the project’s design from the outset rather than addressed only after the preferred alignment has been selected.
The planning process should:
Transparent public reporting will also be essential. Before a final investment decision is made, Canadians should be told:
These figures should appear alongside construction costs, projected ridership, travel-time savings, greenhouse-gas reductions and estimated GDP effects in the public evaluation of the project. If the case for ALTO is sufficiently strong, it should withstand transparent accounting of both its benefits and its consequences.
Before Canada makes an irreversible final investment decision, Parliament and the federal government should commission an independent national opportunity-cost assessment. The purpose would be to determine whether ALTO represents the best use of the capital, land and institutional capacity required to deliver it.
The assessment should compare ALTO with credible alternative investment portfolios involving:
Each option should be evaluated through a common analytical framework examining:
The advanced-mobility alternative must be subjected to the same scrutiny. Its advocates should be required to demonstrate:
Governments should not subsidize fashionable technologies simply because they appear futuristic. At the same time, a mature infrastructure technology should not be exempted from rigorous strategic comparison merely because governments have debated it for more than 50 years.
The advanced-mobility proposition should not be misunderstood as a demand that government invest C$30 billion in air-taxi companies. Concentrating public resources in a single emerging technology or speculative market would be reckless.
A more credible strategy would create a diversified industrial portfolio tied to clearly defined national requirements. Investment could be distributed across:
Such a portfolio would inevitably produce varied outcomes. Some technologies would achieve commercial success, while others might generate valuable intellectual property, skilled workers or transferable capabilities even if their original applications changed. Certain projects would also fail.
The purpose of diversification is not to eliminate risk, which is impossible in any emerging industry. It is to spread that risk across multiple technologies, markets and national requirements. This is what distinguishes a resilient industrial platform from a single speculative technological bet.
Canada’s history offers an instructive analogy. The transcontinental railway was more than a transportation project; it was an instrument of nation-building.
By connecting markets, moving people, opening territory and reinforcing Canadian sovereignty, the railway created strategic value far beyond the steel rails themselves. Its national significance arose from the broader economic, political and security capabilities it made possible.
A twenty-first-century nation-building project should be judged against an equally ambitious standard. Canada should ask:
ALTO may ultimately satisfy enough of these tests to justify proceeding. Given the magnitude and permanence of the proposed investment, however, the burden of proof should be correspondingly high.
Countries reveal their ambitions through the capabilities they choose to create. Canada built railways in the nineteenth century. During the twentieth, it developed highways, airports, telecommunications networks, nuclear technology and a globally competitive aerospace industry.
The technologies likely to define the coming decades are already becoming clear: artificial intelligence, autonomous systems, aerospace, advanced manufacturing, space infrastructure, secure communications, cyber resilience, sensing and electrification. Canada possesses many of the ingredients required to compete in these fields.
Ontario and Quebec together contain an extraordinary concentration of aerospace, automotive, telecommunications, space, artificial-intelligence, defence and manufacturing capabilities. The opportunity is to connect these assets through a coherent national strategy.
Imagine an integrated economic and technological corridor in which:
This vision is not science fiction. Most of the individual capabilities already exist. What remains absent is a national strategy sufficiently ambitious to integrate and scale them.
Canada therefore faces a consequential choice. It can commit generational amounts of capital principally to a transportation system based on mature technology and a policy proposition debated for more than 50 years. Alternatively, it can determine whether a meaningful portion of that same national investment capacity should be directed toward the technologies, companies, defence capabilities and dual-use industries that will shape transportation, security and economic power over the next generation.
The choice need not be absolute. A sophisticated country should be capable of investing in both infrastructure and innovation. National resources, however, are not unlimited. When the early estimated cost of a single railway reaches as high as C$90 billion, asking what else Canada could build, and what irreplaceable farmland it might lose, is not an argument against infrastructure. It is an argument for strategy.
ALTO should be neither rejected merely because rail is a mature technology nor embraced simply because high-speed rail has remained an unrealized Canadian aspiration for half a century. The decision should instead reflect where the world is going, where Canada possesses genuine competitive advantages, and which investment would create the greatest combination of mobility, prosperity, sovereignty, food security and national resilience. The central task of strategy is not to pursue the puck that has been moving across the policy rink for the past 50 years. It is to anticipate where the puck will be when the investment finally begins producing results.
In an era when industrial capacity, technological sovereignty, defence readiness, resilient supply chains and food security are once again foundations of national power, Canada should answer that question before, not after, the money is spent, recognizing that the decision is not simply a matter of transportation policy, but an exercise in economic statecraft.
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