
- Key Takeaways
- Rahul Goel and the Origins of Canada's Most Ambitious Space Startup
- The Hadfield Engine Family: 3D-Printed Propulsion Made in Canada
- From Taiga to Titan: NordSpace's Four-Vehicle Launch Roadmap
- The Atlantic Spaceport Complex: Canada's First Purpose-Built Commercial Launch Facility
- Terra Nova, the Athena Bus, and the Space Systems Lab
- The SHARP Programme and NordSpace's Defence Portfolio
- Government Recognition and the Launch the North Competition
- NordSpace Ventures and the Push to Build a Canadian Space Ecosystem
- Advanced Manufacturing, the German Collaboration, and Institutional Partnerships
- Summary
- Appendix: Top 10 Questions Answered in This Article
Key Takeaways
- NordSpace, founded in 2022 in Markham, Ontario, is primarily self-funded by founder Rahul Goel
- Canada remains the only G7 nation without sovereign orbital launch, the gap NordSpace is closing
- In March 2026, NordSpace won CA$8.33M from DND’s “Launch the North” sovereign launch competition
Rahul Goel and the Origins of Canada’s Most Ambitious Space Startup
Rahul Goel first tried to start a rocket company in 2016, the year he graduated from the University of Toronto’s Engineering Science program with a major in aerospace engineering. Investors weren’t ready to back a recent graduate pitching liquid-fuelled rockets, and the idea went on hold. What Goel did instead was build PheedLoop, a conference management software platform, and use its revenues over several years to accumulate the personal capital he’d need to try again. When he officially incorporated NordSpace in 2022, he did it in Markham, Ontario, without venture capital, without outside board pressure, and without compromising on his original vision: to build a complete, sovereign Canadian space launch system from the ground up.
That decision to wait has shaped nearly everything about how NordSpace operates. More than 90% of its funding has come from Goel’s own pocket, with Wikipedia reporting approximately CA$5 million of personal capital invested in the company. BetaKit’s June 2025 profile put the cumulative total closer to $10 million by that point, suggesting ongoing personal reinvestment as the company scaled. Goel is simultaneously a PhD candidate at the University of Toronto Institute for Aerospace Studies, studying under Professor Jonathan Kelly in the Space and Terrestrial Autonomous Robotic Systems lab, which means he is running two software and hardware companies while working on a doctorate. The sheer pace of commitment says something about the degree to which NordSpace is a personal mission as much as a commercial venture.
NordSpace describes its corporate purpose as advancing life on Earth from space. That phrase is more than branding. The company has been explicit that sovereign launch capability serves concrete Canadian needs: monitoring wildfires in Alberta, tracking whale populations off the Newfoundland coast, providing the Canadian Armed Forces with rapid satellite access over an increasingly contested Arctic, and delivering precision agricultural data to prairie farmers. These are the framework around which Goel has built both his operational roadmap and his case to federal funders.
The team he assembled reflects his background. Several early employees were childhood friends from the MaCS Program at William Lyon McKenzie Collegiate Institute, a specialized stream focused on math, computer science, and science. The broader technical staff includes engineers with credentials from SpaceX, Rocket Lab, NASA’s Jet Propulsion Laboratory, and the Canadian Space Agency, including alumni who worked on Canadarm. As of late 2025, the company was expanding into a 60,000-square-foot manufacturing facility in Ontario to support in-house production of launch vehicles and engines. NordSpace financially supports approximately 15 student engineering groups building rockets, satellites, and rovers, and serves as a leading sponsor of the Launch Canada competition and the Canadian International Rover Challenge.
The Hadfield Engine Family: 3D-Printed Propulsion Made in Canada
NordSpace’s propulsion program is built on additive manufacturing, a deliberate engineering choice that reduces cost, accelerates iteration, and allows a small team to produce flight-grade hardware without the industrial tooling that traditional liquid rocket engines require. The company’s engine family carries the names of three iconic Canadian astronauts: the Hadfield, the Garneau, and the Bondar. The naming convention signals exactly whose legacy NordSpace considers itself to be carrying forward.
The Hadfield Mk III is the current production variant, a 3D-printed, regeneratively cooled engine burning kerosene and liquid oxygen. It powered NordSpace’s Taiga suborbital rocket during the company’s 2025 launch campaign at the Atlantic Spaceport Complex. The turbopump-fed Hadfield engine used on the orbital Tundra vehicle shares the same core architecture, and it’s designed to operate on kerosene, Jet-A, or carbon-neutral Sustainable Aviation Fuels already available from aviation supply chains across Canada. That multi-fuel flexibility has a direct operational payoff: Tundra’s architecture allows the vehicle and its ground support equipment to be containerised and moved, making it possible in principle to launch from a temporary land platform or a maritime vessel rather than only from a fixed spaceport.
NordSpace tested the Hadfield-10 engine on February 8, 2024, completing the first successful firing of a flight-ready, regeneratively cooled rocket engine by a private Canadian company. That milestone preceded a month-long qualification campaign for the Hadfield Mk III in July 2025, which included integrated vehicle tests and demonstrated rapid turnaround between firings. The turnaround data matters because NordSpace has committed to a responsive launch architecture for Tundra, targeting a 96-hour window from formal notice at Initial Operational Capability, later improving to 24 hours.
A defence-oriented variant, the M2S-HyRock, was introduced in March 2025 as part of the SHARP (Supersonic and Hypersonic Applications Research Platform) program. It shares the same additive manufacturing foundation as the main propulsion family but is optimised for hypersonic flight profiles. Across all variants, NordSpace manufactures its engines in-house, which gives the company direct control over production timelines and quality assurance that external sourcing cannot replicate.
From Taiga to Titan: NordSpace’s Four-Vehicle Launch Roadmap
NordSpace is developing a vehicle family structured to scale incrementally, with each generation informing the next. Taiga is a 6-metre suborbital rocket that serves as a propulsion and range operations testbed. Tundra is the orbital workhorse. Tundra+ is an upgraded configuration of the same platform. And Titan, targeting the medium-lift market with payloads exceeding 5,000 kilograms to low Earth orbit, is planned for the early 2030s.
The table below summarises the key specifications across that roadmap as of April 2026:
| Vehicle | Class | Payload to LEO | Propulsion | Target Timeline |
|---|---|---|---|---|
| Taiga | Suborbital | N/A (test vehicle) | Hadfield Mk III | First flight pending, 2026 |
| Tundra | Orbital, light-lift | 500+ kg | Hadfield, turbopump-fed | IOC 2028 |
| Tundra+ | Orbital, light-lift (upgraded) | 1,100 kg | Hadfield, upgraded config | Post-IOC upgrade path |
| Titan | Orbital, medium-lift | 5,000+ kg | Hadfield-derived | Early 2030s |
Tundra is the vehicle NordSpace is staking its commercial future on. It’s a two-stage, turbopump-fed liquid bipropellant rocket with a stated IOC target of 2028, delivering 500+ kilograms to LEO and 350+ kilograms to sun-synchronous orbitat that milestone. The Tundra+ upgrade path raises LEO capacity to 1,100 kilograms and SSO capacity to 850 kilograms, putting it into the same performance bracket as Rocket Lab’s Electron. A modular engine architecture means the same Hadfield engine that powers the multi-engine first stage cluster also drives the single vacuum-optimised second stage, reducing development risk and providing a direct scaling path toward Titan.
The StarGate system is NordSpace’s name for the modular, containerised launch infrastructure that travels with the Tundra vehicle. Combined with multi-fuel propulsion and portable ground support equipment, it’s what makes NordSpace’s claim of mobile responsive launch from anywhere in Canada credible rather than theoretical. The company says 96-hour responsiveness is achievable at IOC from both the Atlantic Spaceport Complex and temporary platforms, improving to 24 hours thereafter.
Taiga’s story so far is one of incremental setbacks and equally incremental progress. The 6-metre suborbital rocket was designed and built in approximately one year, an achievement NordSpace’s CEO has described as the most complex commercial rocket in Canadian history produced on a fully self-funded timeline by a small team. For its inaugural flight, named “Getting Screeched In” after Newfoundland’s tradition of initiating visitors with rum, cod-kissing, and local slang, Taiga was intended to fly partially fuelled to approximately 10 kilometres altitude on a roughly 60-second suborbital arc. NordSpace conducted its first launch campaign at the Atlantic Spaceport Complex in late August 2025. The first attempt on August 29 was scrubbed due to a power loss at a quick-disconnect mechanism on the nitrogen tank. A second window that same afternoon ended when the Hadfield engine ignited nominally but the rocket’s software-based misfire detection system cut fuel flow in an overcautious response, stopping what was later confirmed to be a clean ignition. Subsequent September attempts were halted by fishing vessels entering the marine exclusion zone and by a minor pad fire requiring inspection. NordSpace pushed the attempt to Q1 2026, with spring conditions in Newfoundland now the likely window for the next campaign.
The Atlantic Spaceport Complex: Canada’s First Purpose-Built Commercial Launch Facility
Construction at the Atlantic Spaceport Complex began on August 12, 2025, when NordSpace broke ground near the town of St. Lawrence on Newfoundland’s southern Burin Peninsula. The site sits more than five kilometres from the nearest community, approximately 350 kilometres southwest of St. John’s, and faces directly onto the Atlantic Ocean, providing overwater range safety clearances that commercial orbital launch requires. At 46 degrees latitude, the complex supports launch inclinations between 44 and 105 degrees over the ocean, spanning polar, sun-synchronous, mid-inclination, and certain equatorial trajectories. That range exceeds what most other North American launch sites can offer, where populated areas constrain available corridors.
The initial development phase, budgeted at $10 million, encompasses two launch complexes. SLC-01 will hold two pads for orbital missions, including Tundra and vehicles operated by international partners from the US and Europe under the anticipated Canada-US Technology Safeguards Agreement. SLC-02 is the smaller facility used for suborbital missions, radar tracking, space domain awareness infrastructure, and upper atmospheric research equipment. NordSpace has stated that partner launch vehicles are welcome at ASX, broadening its potential revenue base beyond its own program.
The facility previously operated under the name Spaceport Canada. NordSpace trademarked the name Atlantic Spaceport Complex in June 2025 after it emerged that the Spaceport Canada trademark was registered by competing entity Maritime Launch Services. In January 2026, the Government of Newfoundland and Labrador released ASX from the environmental assessment process, clearing the path for permanent construction following more than two years of technical studies and consultations with local communities, Indigenous stakeholders, and federal and provincial agencies. That environmental clearance is the most significant regulatory milestone the project had reached as of early 2026. The Global Spaceport Alliance counts ASX as its only Canadian member, an affiliation that places the facility in an international network of commercial spaceport operators coordinating on safety standards, operations protocols, and shared knowledge.
Rahul Goel, Founder and CEO of NordSpace, called the August 2025 groundbreaking “a historic moment for Canada” and framed it as a step toward the country owning sovereign access to space for the first time in its history.
Terra Nova, the Athena Bus, and the Space Systems Lab
NordSpace’s Space Systems Lab was formally established in December 2025, representing the company’s deliberate expansion from launch infrastructure into the development of complete spacecraft. Its inaugural program is Terra Nova, a self-funded dual-use demonstration satellite developed in NordSpace’s clean room. Terra Nova is manifested on SpaceX’s Transporter-17 rideshare mission, targeted no earlier than June 2026, and will be deployed by a Falcon 9 Block 5 rocket using ExoLaunch deployer services.
The satellite carries three core technologies. The Athena small satellite bus is NordSpace’s scalable nano and small satellite platform, designed as a standardised foundation for future constellation missions. The Chronos edge-AI camera runs artificial intelligence models on an Nvidia processor capable of detecting non-emitting objects in orbit, identifying illicit ship and aircraft activity over Canada’s Arctic, and recognising early signs of wildfire in Canadian forests. The Zephyr-EP is a green electric propulsion thruster using nitrous oxide and propylene as propellants, manufactured as a single-print additive module. The propellant combination is non-toxic, an advantage for integration safety and handling at launch facilities not equipped for highly hazardous materials.
NordSpace has made the Zephyr thruster family available as a standalone commercial product for third-party satellite operators. The ZepHyr-20 model, available in custom mission-specific configurations, is designed for applications ranging from attitude control and orbit-raising to station-keeping and end-of-life deorbit. That last application carries increasing commercial weight as debris mitigation regulations tighten across major spacefaring jurisdictions.
It’s worth being honest about one point: how quickly the Terra Nova mission translates into a commercial remote sensing revenue stream for NordSpace is ly unclear. Terra Nova is described as a demonstration, and the company has not yet published payload pricing or a defined commercial remote sensing product offering. Chronos and Zephyr are clearly positioned as the core technologies for a future constellation, but that path depends on whether the on-orbit demonstration produces the performance data needed to support commercial contracts.
The SHARP Programme and NordSpace’s Defence Portfolio
Announced in March 2025, the Supersonic and Hypersonic Applications Research Platform, known by the abbreviation SHARP, extended NordSpace’s market reach into defence and high-altitude research applications without waiting for the Tundra orbital programme to mature. SHARP encompasses three products: the Arrow, described as an RP-UAV (rocket-powered unmanned aerial vehicle) designed to operate at the edge of space in microgravity; the Sabre, a hypersonic rocket platform; and the M2S-HyRock engine, which powers both and is produced using the same additive manufacturing techniques as NordSpace’s main propulsion family.
The defence framing is central to NordSpace’s commercial strategy, not peripheral to it. Canada’s dependence on foreign launch providers for military satellites, surveillance systems, and Arctic monitoring infrastructure has become a progressively sharper concern among defence planners, particularly after geopolitical events in 2022 and afterward exposed how quickly satellite-dependent services can become vulnerable to disruption or denial. SHARP allows NordSpace to address that concern at the sub-orbital tier immediately, providing platforms for time-sensitive defence missions without requiring IOC for Tundra first. Defence Research and Development Canada and the Canadian Association of Defence and Security Industries are listed among NordSpace’s institutional partners, reflecting the degree to which the defence relationship is already formalised.
Government Recognition and the Launch the North Competition
Canada’s 2025 federal budget committed $182.6 million toward developing domestic launch capability, a direct response to the strategic exposure created by the country’s complete dependence on foreign orbital access. That commitment was operationalised through the Department of National Defence‘s “Launch the North: Accelerating Canada’s Sovereign Access to Space” challenge, administered through the Innovation for Defence Excellence and Security (IDEaS) program. The total prize pool was set at up to $105 million, the largest federal investment in Canadian sovereign space launch in the nation’s history.
On March 16, 2026, NordSpace announced its selection as a Phase 1 winner of Launch the North, receiving CA$8.33 million in grant funding. The award specifically recognises Tundra and the Atlantic Spaceport Complex. Phase 1 funding is directed toward development and demonstration of Tundra, with the 2028 IOC target and a commitment to responsive launch within 96 hours of formal notice from both the ASX and mobile platforms across Canada. Rahul Goel, Founder and CEO of NordSpace, said in the announcement: “Our Tundra rocket, ASX spaceport, and full NordSpace ecosystem is the most advanced and integrated sovereign launch effort in Canada. We will not let this opportunity pass. We will ensure Canada wins.”
Several additional government grants preceded the Launch the North award. The Canadian Space Agency awarded NordSpace $1 million in November 2025 through its Space Technology Development Program to advance additive manufacturing for rocket propulsion. The Ontario Centre of Innovation provided funding through its Critical Industrial Technologies Initiative in October 2025 to support the Advanced Manufacturing for Aerospace Lab. The National Research Council of Canada Industrial Research Assistance Program, known as NRC IRAP, announced up to $335,000 in advisory services and funding in January 2026 for a collaboration with German engineering partners focused on medium-lift rocket engine manufacturing.
Each of these grants represents a layer of institutional endorsement that NordSpace has leveraged in subsequent applications. The IDEaS Phase 1 award is especially significant because it places NordSpace in direct competition for the much larger Phase 2 and Phase 3 stages within the $105 million total pool, where the financial stakes scale substantially and the national security implications move to the foreground.
NordSpace Ventures and the Push to Build a Canadian Space Ecosystem
On February 26, 2026, NordSpace announced the public launch of its corporate venture capital division, NordSpace Ventures. Global Venturing identified NordSpace as the first space launch startup to establish a corporate venture capital arm, a distinction that reflects how unusual NordSpace’s self-funded, vertically integrated model is even by international commercial space standards. The division targets up to CA$2 million in investments per year, focused on Canadian space, defence, and dual-use technology companies.
Portfolio companies receive more than capital. Access to NordSpace’s Advanced Manufacturing for Aerospace Lab, its Space Systems Lab, the Canadian Space Research Range for open-air hardware testing, and future launch services from the Atlantic Spaceport Complex all come with the investment. For early-stage Canadian space startups, that bundled access to manufacturing, testing, and launch infrastructure may be as strategically valuable as the cash itself.
The division’s first publicly disclosed portfolio company is Wyvern, an Edmonton, Alberta-based Earth observation company founded in 2018 by University of Alberta engineering alumni. Wyvern operates the Dragonette constellation, a small fleet of satellites delivering 5.3-metre resolution hyperspectral imagery from low Earth orbit, the highest resolution commercial hyperspectral data currently available from any provider. The constellation serves customers in defence, agriculture, forestry, mining, energy, and environmental monitoring. NordSpace did not disclose the size of the investment; Wyvern CEO Chris Robson described it to BetaKit as “a fairly big investment,” primarily intended to advance the development of the company’s next-generation Rosette satellites. Wyvern deployed its first Dragonette satellite in April 2023 and has been scaling its constellation since.
Rahul Goel, Founder and CEO of NordSpace, said at the announcement: “For too long, Canada’s most promising space and defence companies have had to look outside our borders for capital, customers, and credibility. NordSpace Ventures changes that equation.”
The NordSpace-Wyvern relationship illustrates the strategic logic behind the Ventures division with unusual clarity. NordSpace is building the infrastructure to place objects in orbit; Wyvern is building the sensing technology that makes those objects economically productive once they’re there. A future in which Wyvern’s hyperspectral Rosette satellites launch on Tundra rockets from the Atlantic Spaceport Complex, serving Canadian government and defence customers, is exactly the self-reinforcing ecosystem NordSpace is trying to create. Whether that flywheel spins on schedule depends on variables that remain ly uncertain: the first successful Taiga launch, Tundra reaching IOC, and Terra Nova delivering on-orbit performance data. NordSpace Ventures has indicated additional portfolio companies will be announced in the months ahead.
Advanced Manufacturing, the German Collaboration, and Institutional Partnerships
The Advanced Manufacturing for Aerospace Lab was established in October 2025 as NordSpace’s dedicated facility for manufacturing research, novel materials, advanced composites, and robotic production. Funded in part by the Ontario Centre of Innovation through its Critical Industrial Technologies Initiative, the lab is also the site where the company is commercialising its Hadfield orbital-class engines, with a stated target of commercial-scale production in 2026.
For medium-lift engine development, NordSpace has partnered with two German organisations: the Fraunhofer Institute for Laser Technology (ILT), which contributes its EHLA high-speed laser deposition technology, and SWMS Systemtechnik Ingenieurgesellschaft mbH, which provides CAESA software that optimises additive manufacturing toolpaths through AI-driven process planning. The collaboration was supported by up to CA$335,000 in NRC IRAP funding announced in January 2026. Its focus is on the production and qualification challenges that emerge specifically when rocket engines scale from light-lift to medium-lift dimensions, where internal channel density, inspection complexity, and thermal management become production constraints rather than design problems.
On the infrastructure side, NordSpace signed a Memorandum of Understanding with Kongsberg Geospatial to advance space domain awareness capabilities integrated with its responsive launch operations. A separate MOU with C-CORE targets development of ground station infrastructure across Canada to support satellite communications and tracking for NordSpace’s growing satellite mission portfolio. These partnerships extend the company’s operational capabilities without requiring full capital expenditure on its own, a pattern consistent with NordSpace’s discipline about deploying scarce capital against the highest-value gaps rather than owning every node.
The company maintains active industry memberships with Space Canada, the Aerospace Industries Association of Canada, the Ontario Aerospace Council, and the Canadian Association of Defence and Security Industries. NordSpace hosted the first Canadian Space Launch Conference in 2025 and plans the second edition in Ottawa on May 5, 2026, bringing together hundreds of stakeholders from across the space launch sector.
Summary
Canada was the third country in the world to have a satellite in orbit, with Alouette 1 launched in 1962, and contributed Canadarm to the Space Shuttle program. Yet Canada has never launched an orbital rocket from its own soil. NordSpace, a 100% Canadian-owned aerospace company, is the first serious attempt to change that through a fully vertically integrated, commercially structured launch enterprise built and operated entirely within Canada. The company owns its engine technology, its launch vehicle designs, its spaceport, its satellite bus, and now a venture capital arm investing in the broader ecosystem. No other Canadian organisation is simultaneously advancing on all five of those fronts.
What NordSpace represents beyond its balance sheet is a wager on the idea that Canada’s decades of aerospace contribution should eventually translate into sovereign orbital capability. The country’s failure to develop a domestic launch industry was, as Goel has argued publicly, more a failure of strategic will and capital formation than a failure of engineering talent. The Launch the North award, Budget 2025’s $182.6 million commitment, and the growing stack of government grants suggest the federal government has concluded Goel’s argument is correct. Whether NordSpace converts that policy momentum into an actual launch from Canadian soil by 2028 will be the measure of everything the company has built since 2022.
Appendix: Top 10 Questions Answered in This Article
Who founded NordSpace and when?
NordSpace was founded in 2022 by Rahul Goel, a University of Toronto Engineering Science graduate and PhD candidate at the University of Toronto Institute for Aerospace Studies. Goel previously built PheedLoop, a profitable conference management software platform, and used its revenues to self-fund NordSpace before the company began receiving government grants.
Where is NordSpace headquartered?
NordSpace is headquartered in Markham, Ontario, Canada. The company operates manufacturing and testing facilities in Ontario, including a new 60,000-square-foot production facility, and manages the Atlantic Spaceport Complex under construction near the town of St. Lawrence in Newfoundland and Labrador.
What is the Tundra rocket?
Tundra is NordSpace’s orbital launch vehicle under active development, a two-stage, turbopump-fed liquid rocket capable of delivering 500+ kilograms to low Earth orbit at Initial Operational Capability. An upgraded Tundra+ configuration raises LEO payload capacity to 1,100 kilograms, with a first launch targeting 2028.
What is the Atlantic Spaceport Complex?
The Atlantic Spaceport Complex is a commercial launch facility under construction near St. Lawrence, Newfoundland and Labrador, and the only purpose-built orbital spaceport in Canada. Construction began in August 2025, environmental approval was received in January 2026, and the facility supports launch inclinations from 44 to 105 degrees over the Atlantic Ocean.
What happened during NordSpace’s 2025 Taiga launch campaign?
NordSpace conducted multiple Taiga launch attempts from August to September 2025, all of which were scrubbed due to a combination of ground system faults, an overly cautious ignition detection software response that halted an otherwise nominal engine firing, marine traffic violations by fishing vessels, and a minor launchpad fire. No launch occurred during the campaign, and the company pushed the next attempt to spring 2026.
How has the Canadian government funded NordSpace?
The Canadian Space Agency awarded NordSpace $1 million in November 2025 through its Space Technology Development Program. The Ontario Centre of Innovation provided grant funding in October 2025 for the Advanced Manufacturing for Aerospace Lab. NRC IRAP committed up to CA$335,000 in January 2026 for a German manufacturing collaboration. The Department of National Defence’s Launch the North IDEaS challenge awarded NordSpace CA$8.33 million in Phase 1 grant funding in March 2026.
What is NordSpace Ventures?
NordSpace Ventures is a corporate venture capital and strategic investment division publicly launched by NordSpace on February 26, 2026. It targets up to CA$2 million per year in Canadian space, defence, and dual-use technology companies, with portfolio companies receiving access to NordSpace’s manufacturing labs, testing range, and future launch services. Its first disclosed portfolio company is Wyvern, an Edmonton-based hyperspectral imaging satellite operator.
What is the Terra Nova satellite?
Terra Nova is NordSpace’s first satellite, a self-funded dual-use defence and commercial demonstration spacecraft being developed in the company’s Space Systems Lab. It carries the Athena small satellite bus, the Chronos edge-AI camera system, and the Zephyr-EP electric propulsion thruster, and is manifested on SpaceX’s Transporter-17 rideshare mission targeting launch no earlier than June 2026.
What is the SHARP program?
SHARP stands for Supersonic and Hypersonic Applications Research Platform, a defence-oriented program NordSpace announced in March 2025 that operates at the edge of space for high-speed, high-altitude missions. It includes the Arrow rocket-powered unmanned aerial vehicle, the Sabre hypersonic rocket platform, and the M2S-HyRock 3D-printed engine derived from NordSpace’s core additive manufacturing propulsion programme.
What makes NordSpace structurally distinct from other Canadian space companies?
NordSpace is the only Canadian company simultaneously developing orbital launch vehicles, operating a licensed commercial spaceport, building and flying its own satellites, and investing through a formal venture capital division in strategic Canadian space and defence suppliers. This end-to-end vertical integration, spanning propulsion, vehicles, launch infrastructure, spacecraft, and ecosystem investment, is unmatched in Canada and sets NordSpace apart from companies that occupy a single segment of the space economy.

