Toronto-based Canada Rocket Company is readying this year for hot-fire testing of engine components for its R-2 rocket.
The startup is one of three Canadian companies that earlier this year received $8.3 million from the government for launch vehicle development, as part of an effort to establish a domestic launch capability. CRC is targeting a medium-lift design, capable of launching up to 15,000 kilograms to low-Earth orbit. The others, Nordspace of the Toronto area and Reaction Dynamics of the Montreal area, are pursuing small-lift designs of under 1,100-kg.
The first CRC test, planned for December, will focus on a gas generator for turbine ignition, according to CEO and co-founder Hugh Kolias.
“We’ll be hot-firing that generator at our test facility in December of this year,” he said in an interview. “That really kicks off the beginning of our core test and development cycle for our engine that will extend to about 2028, when we should have a fully assembled engine with turbopump ready for hot fire. And then we’re looking at about a 2032 launch attempt.”
Along with the launch vehicle funding, Canada’s Department of National Defense announced in March it had allocated $200 million to develop a spaceport on the Atlantic coast of Nova Scotia, which is now under construction.
“With military, emergency response, and government services increasingly dependent on space-based systems, sovereign launch protects national interests and enables continuity of operations,” the announcement reads.
Kolias said the R-2 will have nine engines fed by methalox — liquid methane fuel and liquid oxygen oxidizer, the propellant used for the first stages of Starship, Blue Origin’s New Glenn and Rocket Lab’s Neutron launchers. The R-2 structure will likely be largely composed of aluminum lithium alloy, he said, the same material SpaceX uses for Falcon 9 boosters.
CRC has raised $22 million, including the government money, and aims to raise $650 million in the next few years as testing proceeds. Plans call for building the facility for the December hot-fire and other testing “this fall,” Kolias said.
CRC is also considering purchasing a separate 500,000-square-foot (46,450-square-meter) facility for manufacturing R-2s, according to Kolias. That building “needs to be near water” because the rocket will be transported by barge to the Atlantic launch site, he added.
He said CRC’s research shows demand for satellite launches far outstrips the available supply of rockets, especially as SpaceX has announced its intention to begin phasing out Falcon 9. SpaceX founder Elon Musk in August posted on X that “winding down” Falcon operations would occur “once Starship is flying reliably several times a week.”
A CRC spokesperson said by email the company has “found that about 80% of satellite launch demand is currently without a contracted ride to orbit,” and CRC expects that number to rise.
The Canadian government hasn’t described its desired launch cadence, but Kolias said he expects CRC and other providers to conduct up to a dozen launches annually in the 2030s.
The growing demand for medium-lift launchers, as well as the potential gap created if SpaceX retires Falcon 9, is recognized in the industry, said Chris Quilty, a Florida-based space business analyst.
“It’s unclear what will fill the gap,” Quilty said. “SpaceX took 83% of global mass to market in 2025, and they are switching over to Starship, but it is unlikely they will make Starship available to commercial customers for two to three years while they focus on their own needs, such as launching Starlink or orbital data centers” and government launches, such as those for NASA’s Artemis moon program.
“To fill the gap, Blue Origin’s New Glenn is the only contender in the heavy-lift category, while there are a dozen small, medium and heavy launch vehicles racing” to begin operations, Quilty said.
However, not everyone expects SpaceX to retire Falcon 9, said Liang Sim, a space analyst with Michigan consultancy AeroDynamic Advisory.
“It would be silly to retire what is one of the biggest cash cows,” Sim said.
Facts Only
* Canada Rocket Company is preparing for hot-fire testing of R-2 rocket engine components.
* The company received $8.3 million from the government for launch vehicle development.
* CRC targets a medium-lift design capable of launching up to 15,000 kilograms to low-Earth orbit.
* The first CRC test is planned for December, focusing on a gas generator for turbine ignition.
* The core engine test cycle is projected to extend to about 2028, aiming for a fully assembled engine with a turbopump ready for hot fire by then, targeting a launch attempt around 2032.
* The R-2 will feature nine engines fed by methalox propellant (liquid methane and liquid oxygen).
* The R-2 structure is likely to use aluminum lithium alloy.
* The Canadian Department of National Defense allocated $200 million for a spaceport on the Atlantic coast of Nova Scotia.
* CRC has raised $22 million, including government money, and aims to raise $650 million over the next few years.
* Plans exist to build testing facilities this fall and consider purchasing a 500,000-square-foot manufacturing facility near water for R-2s.
* A spokesperson found that about 80% of satellite launch demand is currently without a contracted ride to orbit.
Executive Summary
Toronto-based Canada Rocket Company is preparing for hot-fire testing of engine components for its R-2 rocket. The company is one of three Canadian entities that received $8.3 million from the government for launch vehicle development, aiming to establish domestic launch capability. CRC is designing a medium-lift vehicle capable of launching up to 15,000 kilograms to low-Earth orbit. The first CRC test is planned for December and will focus on a gas generator for turbine ignition. The CEO stated that this test initiates the core engine development cycle, which is projected to extend to 2028 for a fully assembled engine ready for hot fire, with a target launch attempt around 2032.
Canada’s Department of National Defense allocated $200 million in March to develop a spaceport on the Atlantic coast of Nova Scotia. The R-2 vehicle is planned to use nine engines fed by methalox propellant. The structure is expected to be largely aluminum lithium alloy, similar to materials used in Falcon 9 boosters. CRC has secured $22 million, including government funding, and plans to raise $650 million in the coming years. The company is planning to build facilities for testing this fall and is considering acquiring a separate 500,000-square-foot facility near water for R-2 manufacturing, facilitating barge transport to the Atlantic launch site.
The demand for satellite launches significantly outstrips the supply of rockets, with one spokesperson noting that about 80% of satellite launch demand currently lacks a contracted ride to orbit and is expected to rise. Industry analysts observe a gap in the market, noting that while SpaceX pursues Starship development, other heavy-lift contenders like Blue Origin’s New Glenn are vying for space, suggesting a competitive landscape with numerous medium, small, and heavy launch vehicles racing to operate.
Full Take
The narrative centers on the convergence of government investment in domestic launch capability, commercial competition among private entities, and the massive, unmet market demand for access to orbit. The pattern observed is the translation of national strategic interest (sovereign launch) into commercial development pathways, demonstrated by the funding allocated to CRC alongside the Department of National Defense's spaceport initiative. This creates an environment where technological advancement is tightly coupled with state objectives and private market pressures.
The tension arises from the projected gap in the launch market. While SpaceX is heavily invested in its internal infrastructure shift toward Starship, analysts point to the potential for other competitors like Blue Origin's New Glenn to fill specific heavy-lift roles. This dynamic suggests that progress in access to space may be dictated less by singular technological leaps and more by the segmentation of capability across a competitive field racing toward operational capacity. The observation that demand outstrips supply reinforces a systemic constraint on expansion; the real implication is whether current public and private investment structures are sufficient to resolve this gap sustainably, or if the system will simply segment into competing, rather than integrated, pathways for orbital access.
What assumptions about future market consolidation and governmental prioritization underpin the current trajectory? If the demand signal—80% of launch opportunities currently uncontracted—is accurate, does incremental development (like the CRC engine test) sufficiently address the large-scale infrastructural gap, or is the focus inherently fragmented across numerous specialized vehicles rather than a unified path to high-cadence access? What specific mechanisms need to be in place for the government's investment to successfully bridge the identified operational disparity between current capacity and stated demand?
Sentinel — Human
The text reads like a standard piece of industry journalism, effectively synthesizing specific company milestones, government investment, and expert commentary on the competitive landscape in the space launch sector.