Which Canadian Satellites Were Launched from 2000 Through 2026?

Key Takeaways

• Canada moved from large relay satellites to mixed fleets of radar, science, and commercial spacecraft.
• SpaceX carried every Canadian mission recorded in 2025 and each launch through July 10, 2026.
• Hosted payloads now blur the line between a Canadian satellite and a Canadian data mission.

How This Canadian Satellite Record Is Defined

At 12:12 a.m. Pacific time on July 7, 2026, a SpaceX Falcon 9 left California with four Canadian missions aboard: two GHGSat methane sensors, an EarthDaily imaging payload, and the University of Victoria’s MARMOTSat. That flight brought the 2026 total through July 10 to 21 Canadian satellites or Canadian-led hosted missions. It also illustrated how different the phrase “Canadian satellites” had become from its meaning in 2000, when a single multiton Telesat relay spacecraft accounted for the year’s entire Canadian launch record.

The year-by-year review uses an operator-centered definition. A spacecraft belongs in the core record when a Canadian government body, company, university, or nonprofit organization owned it, operated it, or commissioned it for a Canadian-controlled mission. That approach includes Telesat communications satellites, Canadian Space Agency science missions, Department of National Defence spacecraft, university CubeSats, and commercial fleets run by firms such as GHGSat and Kepler Communications. It excludes a foreign customer’s satellite simply because a Canadian manufacturer built the bus or an instrument. That distinction matters because Toronto’s Space Flight Laboratory has supplied spacecraft for Austria, Norway, Slovenia, and the United States, but those missions were operated for foreign customers.

A separate label identifies hosted missions. Under this model, a Canadian operator supplies an instrument, terminal, software package, or data mission that flies on a spacecraft owned and sometimes operated by a foreign platform company. Wyvern’s recent Dragonette cameras on Loft Orbital spacecraft fit this category, as do several GHGSat instruments on Spire Global buses. They belong in the commercial record because the Canadian company defines the observation goal and markets the resulting service, yet calling the entire host spacecraft Canadian would overstate Canadian ownership. The distinction follows the broader change described in New Space Economy’s account of Canada’s commercial space sector, where data contracts and hosted capacity can matter as much as possession of a satellite bus.

Access to data without Canadian control of a spacecraft or payload does not qualify. exactEarth sold data from the exactView RT system, but Harris designed, built, and operated those payloads on U.S.-owned Iridium NEXT satellites. Those Iridium launches are excluded because the Canadian company did not operate the buses or hosted payloads. Vesta and ESAIL remain in the chronology because exactEarth commissioned and operated their Canadian maritime missions on individually identified spacecraft.

Launch date means the date a rocket carried the spacecraft away from Earth. CubeSats delivered as cargo to the International Space Station receive the cargo launch date, with the later orbital deployment identified in the text. Launch service provider means the organization that sold or conducted the orbital service, such as Arianespace, International Launch Services, SpaceX, or Rocket Lab. A rideshare integrator or station deployer is named when it performed a separate operational function. This avoids treating a rocket model, a launch broker, and a deployment company as though they were the same entity.

The United Nations register supplies the legal registration record, but it cannot serve as a complete annual catalog on its own. Canadian filings have often arrived in groups years after launch, and hosted payloads may be registered under the host spacecraft’s state. Operator pages, Canadian government mission pages, manufacturer records, and launch-provider manifests fill those gaps. The resulting scope is broader than a list of Canadian Space Agency missions and narrower than a list of every foreign spacecraft containing Canadian hardware.

The record also excludes Canadarm2, Dextre, the Mobile Base System, and other Canadian hardware attached to the International Space Station. Those systems reached orbit and are central to Canada’s space history, but they are station elements rather than independent satellites. Unlaunched plans such as WildFireSat, QEYSSat, and later Telesat Lightspeed batches remain outside the chronology until an orbital launch occurs. New Space Economy’s longer Canada in Orbit history gives the pre-2000 lineage, including Alouette, Anik, and RADARSAT-1, needed to place the 26-year period in its full national setting.

Canadian Satellites Launched from 2000 to 2008

2000

Anik F1 opened the period on November 21, 2000. Telesat Canada operated the geostationary communications satellite to relay television, voice, and data services across North and South America in C-band and Ku-band, two radio-frequency ranges widely used for satellite links. Arianespace launched it from Kourou, French Guiana, on an Ariane 44L. The spacecraft represented the established Canadian model at the start of the century: one large commercial relay satellite, bought for long service at a fixed orbital longitude and carried by a foreign heavy launcher.

Anik F1’s broad capacity supported broadcasters, telecommunications carriers, and enterprise networks. Its solar-array performance later fell below original expectations, which led Telesat to order Anik F1R rather than wait for the planned retirement date. The launch nonetheless extended the Anik line that had connected northern and rural communities since the 1970s.

2001

No independent Canadian satellite launched in 2001. Space Shuttle Endeavour carried Canadarm2 to the International Space Station in April, and the robotic system became one of Canada’s best-known orbital contributions. It is omitted from the satellite roster because it was installed on the station and never operated as a free-flying spacecraft.

That empty satellite year still shows the breadth of Canadian space activity. Canada could deliver high-value robotics to a crewed orbital complex without adding an object to its national satellite fleet, a difference that raw launch counts cannot express.

2002

Nimiq 2 launched on December 29, 2002, Coordinated Universal Time, for Telesat Canada. Its goal was direct-to-home television distribution in Canada, with Ku-band capacity supporting digital broadcast customers. International Launch Services provided the Proton launch from Baikonur Cosmodrome. A malfunction in the spacecraft’s electrical power system reduced available capacity after launch, yet Nimiq 2 entered commercial use and remained part of Telesat’s broadcast infrastructure.

Canada’s Mobile Base System also traveled to the International Space Station in June 2002. Like Canadarm2, it was attached to the station and is not counted as a satellite. Separating those two types of orbital hardware keeps the annual list tied to independently orbiting missions.

2003

Three Canadian satellites launched in 2003, and none repeated the large commercial pattern of Anik F1 or Nimiq 2. MOST and CanX-1 shared a Eurockot Rockot launch from Plesetsk on June 30. The University of Toronto Institute for Aerospace Studies Space Flight Laboratory operated both during their early missions, with the Canadian Space Agency supporting MOST and the university leading CanX-1.

The Microvariability and Oscillations of STars (MOST) space telescope used precise photometry to measure tiny changes in the brightness of stars. Its science goals included studying stellar oscillations and observing light reflected from some exoplanets. The suitcase-sized spacecraft demonstrated that a small Canadian satellite could produce years of astronomy data without the mass or cost of a conventional observatory.

CanX-1 was an educational and technology spacecraft. Students used it to test a miniature camera, attitude sensing, radio links, and other nanosatellite subsystems. Its value lay as much in training and platform development as in the images it returned, since the Canadian Advanced Nanospace eXperiment program became the basis for later formation-flying, ship-tracking, and commercial small-satellite missions.

SCISAT launched on August 12 aboard an Orbital Sciences Pegasus XL released from an aircraft near Vandenberg, California. The Canadian Space Agency operated the atmospheric science satellite to measure trace gases, ozone-related chemistry, and particles in the upper atmosphere. Its Atmospheric Chemistry Experiment used solar occultation, observing sunlight through the atmosphere at sunrise and sunset to identify gases by their absorption patterns. SCISAT’s long service life turned a focused research mission into one of Canada’s most productive science satellites.

2004

Anik F2 launched on July 18, 2004, aboard an Arianespace Ariane 5G from Kourou. Telesat operated the geostationary spacecraft for C-band, Ku-band, and Ka-band communications, with the higher-frequency Ka-band supporting broadband links. Its operational goals covered conventional broadcast and telecommunications services, plus two-way broadband suited to remote communities and businesses beyond terrestrial networks.

The satellite’s Ka-band service became closely associated with broadband access in northern Canada. A 2011 service interruption also demonstrated how transport, banking, communications, and public services in remote communities could depend on one orbital asset. Anik F2 made satellite communications an everyday utility rather than a distant engineering program.

2005

Anik F1R launched on September 8, 2005, through International Launch Services on a Proton-M with a Briz-M upper stage from Baikonur. Telesat commissioned the satellite to replace capacity affected by Anik F1’s solar-array degradation and to provide C-band and Ku-band communications across North America. It also carried a navigation payload supporting the United States Wide Area Augmentation System, which improved the accuracy and integrity information available to compatible Global Positioning System users.

The satellite combined commercial relay work with a safety-related navigation service. That mixed payload made Anik F1R more than a straightforward replacement, even though continuity for broadcast and network customers remained its central commercial purpose.

2006

No independent Canadian satellite launched in 2006. Development work continued on RADARSAT-2, university nanosatellites, and later Telesat spacecraft, but none reached orbit during the calendar year. The gap also reflects the long production cycle of large satellites, which could take several years from contract to launch.

Canadian launch counts at that time naturally rose and fell in steps. A year with no spacecraft did not mean the industrial base had stopped working; it often meant several complex programs were moving through assembly, testing, licensing, or launch scheduling.

2007

Anik F3 launched on April 9, 2007, through International Launch Services on a Proton-M and Briz-M from Baikonur. Telesat operated it at geostationary altitude for C-band and Ku-band communications, direct-to-home broadcasting, and Ka-band services. The spacecraft added capacity for Canadian television distribution, telecommunications networks, and enterprise customers.

RADARSAT-2 followed on December 14 aboard a Starsem Soyuz-FG and Fregat from Baikonur. MDA owned and operated the commercial radar satellite under an arrangement with the Canadian government, and the Canadian Space Agency remained the federal program partner. Its C-band synthetic aperture radar could image Earth’s surface by day or night and through cloud, supporting sea-ice mapping, maritime monitoring, disaster response, agriculture, geology, and defense users. The sensor also added left- and right-looking modes and finer imaging choices than RADARSAT-1.

The two launches placed different Canadian space businesses side by side. Anik F3 sold communications capacity from a fixed geostationary position, whereas RADARSAT-2 sold observations from a near-polar low Earth orbit. New Space Economy’s space economy value chain helps explain why both count as satellite businesses even though their customers, orbits, data products, and ground systems differed.

2008

CanX-2 and CanX-6, also called the Nanosatellite Tracking of Ships satellite, launched together on April 28, 2008. Antrix, the commercial arm of the Indian Space Research Organisation at the time, supplied the Polar Satellite Launch Vehicle C9 service from the Satish Dhawan Space Centre. Space Flight Laboratory operated CanX-2 as a technology and science platform, testing components, a miniature atmospheric spectrometer, radio techniques, and attitude-control methods that supported later Canadian missions.

CanX-6 was operated by Space Flight Laboratory with COM DEV and later exactEarth participation. Its operational goal was to detect Automatic Identification System transmissions from ships, proving that a small spacecraft could collect maritime traffic data over ocean areas beyond coastal receivers. The demonstration led directly toward exactEarth’s commercial satellite ship-tracking service.

Nimiq 4 launched on September 19 through International Launch Services on a Proton-M and Briz-M from Baikonur. Telesat operated the geostationary satellite for direct-to-home television and related broadcast distribution in Canada. Its high-power Ku-band payload supplied replacement and growth capacity for satellite television customers.

Ciel-2 launched on December 10 through International Launch Services, again using a Proton-M and Briz-M from Baikonur. Ciel Satellite Group, a Canadian operator later absorbed into SES, commissioned the spacecraft to deliver Ku-band broadcasting services over Canada and the United States. The year closed with four very different Canadian missions: two university-scale spacecraft in low Earth orbit and two commercial broadcast satellites in geostationary orbit.

Canadian Satellites Launched from 2009 to 2016

2009

Telstar 11N launched on February 26, 2009, aboard a Zenit-3SLB supplied through Sea Launch’s Land Launch service from Baikonur. Telesat operated the geostationary satellite to deliver Ku-band communications across North America, Europe, Africa, and Atlantic Ocean routes. Its coverage supported broadcasters, enterprise networks, and mobile users at sea and in the air, extending Telesat’s business well beyond domestic Canadian broadcasting.

Nimiq 5 followed on September 17 through International Launch Services on a Proton-M and Briz-M from Baikonur. Telesat operated it for direct-to-home television in North America, with Canadian satellite television as its central market. Together, the launches showed how Telesat could maintain a domestic Nimiq line and an international Telstar line within the same fleet.

2010

No Canadian-operated spacecraft launched in 2010 under the operator-centered definition. Space Flight Laboratory built AISSat-1 for Norway, and that ship-tracking satellite reached orbit during the year, but the Norwegian Coastal Administration owned the mission. Its Canadian manufacture does not turn it into a Canadian satellite for this chronology.

The distinction prevents industrial output from being confused with national operation. Canadian firms gained export revenue and flight experience from foreign spacecraft even in years when the Canadian-operated total remained at zero.

2011

Telstar 14R, also known as Estrela do Sul 2, launched on May 20, 2011, through International Launch Services on a Proton-M and Briz-M from Baikonur. Telesat operated the geostationary satellite to supply C-band and Ku-band services across the Americas and Atlantic routes, including communications for maritime and aeronautical customers. One solar array failed to deploy fully, reducing available power, but the satellite entered service with adjusted capacity planning.

ExactView-2 was an exactEarth Automatic Identification System receiver hosted on India’s Resourcesat-2 spacecraft, launched on April 20 by an Antrix Polar Satellite Launch Vehicle C16 from the Satish Dhawan Space Centre. exactEarth used the Canadian commercial payload to collect vessel transmissions, and the Indian Space Research Organisation operated the host satellite. It is counted as a hosted Canadian data mission, not as a Canadian-owned spacecraft.

AprizeSat-5, also called exactView-5, and ADS03, also called AprizeSat-6 or exactView-6, launched on August 17 aboard a Dnepr service conducted by ISC Kosmotras from the Yasny launch area in Russia. SpaceQuest supplied and operated the U.S.-built platforms, and Canada’s exactEarth used the Automatic Identification System payloads for commercial vessel tracking. The Canadian registration filing identifies ADS03 and the joint SpaceQuest and exactEarth operating relationship, even though related AprizeSat entries were cataloged under different national arrangements.

Telesat also owned and operated a Canadian Ka-band payload on the U.S.-operated ViaSat-1 satellite. International Launch Services carried the host spacecraft from Baikonur on a Proton-M and Briz-M on October 19. It is treated here as hosted capacity rather than another Canadian satellite because ViaSat owned and controlled the spacecraft. This early hosted arrangement anticipated the service models used by Canadian Earth observation companies more than a decade later.

2012

Nimiq 6 launched on May 17, 2012, through International Launch Services aboard a Proton-M and Briz-M from Baikonur. Telesat operated the geostationary spacecraft for direct-to-home television across Canada. Bell TV contracted its capacity, making the satellite a dedicated broadcast asset built around an anchor customer rather than a general-purpose fleet addition.

ExactView-1, registered as ADS01, launched on July 22 aboard a Soyuz-FG and Fregat from Baikonur with Starsem as launch provider. Surrey Satellite Technology Limited owned the platform role identified in Canada’s filing, and exactEarth operated the maritime data mission. The satellite collected Automatic Identification System transmissions from vessels, processed overlapping messages, and returned positions for commercial and government customers. Its larger platform and higher-capacity payload expanded exactEarth’s ocean surveillance service beyond the earlier CanX-6 demonstration.

2013

Sapphire and NEOSSat shared an Antrix Polar Satellite Launch Vehicle C20 flight from India on February 25, 2013. Canada’s Department of National Defence operated Sapphire as an optical space-surveillance satellite. It observed human-made objects in medium and high Earth orbits and supplied tracking data to the United States Space Surveillance Network, giving Canada a sovereign sensor within a shared continental space-domain awareness system.

The Canadian Space Agency and Defence Research and Development Canada sponsored NEOSSat, with the agency responsible for the civil astronomy portion and the defense department supporting space-surveillance experiments. The microsatellite observed near-Earth asteroids in directions difficult for ground telescopes and tested techniques for tracking satellites and debris. Its telescope worked above atmospheric scattering, though pointing and detector issues limited early performance and required extended commissioning.

Anik G1 launched on April 15 through International Launch Services on a Proton-M and Briz-M from Baikonur. Telesat operated the geostationary satellite with C-band, Ku-band, and X-band payloads. Commercial goals included broadcast and communications capacity over the Americas; the X-band payload served Canadian and allied government users across the Pacific region.

CASSIOPE launched on September 29 aboard a SpaceX Falcon 9 from Vandenberg. The Canadian Space Agency funded the scientific Enhanced Polar Outflow Probe, and the University of Calgary led science operations after commissioning. Its instruments studied the ionosphere, aurora, and the escape of charged particles into space. A second payload, Cascade, tested high-volume store-and-forward communications, so the spacecraft combined space-weather research with a commercial communications demonstration.

AprizeSat-7, called exactView-5R, and AprizeSat-8, called exactView-12, launched on November 21 aboard an ISC Kosmotras Dnepr from Yasny. SpaceQuest supplied the small platforms, and exactEarth incorporated their Automatic Identification System receivers into its Canadian maritime data service. Their goal was to increase the frequency and geographic reach of vessel tracking from low Earth orbit.

The year marked a broader Canadian mission mix than any earlier point in the period. Civil science, military tracking, government communications, commercial broadcasting, and experimental data relay all reached orbit within seven months. New Space Economy’s account of the Canadian Space Agency Act provides useful context for the agency’s coordinating function within a system that also assigns responsibilities to defense organizations, universities, and private operators.

2014

BRITE-CA1, known as BRITE-Toronto, and BRITE-CA2, known as BRITE-Montreal, launched on June 19 aboard a Dnepr service conducted by ISC Kosmotras from Yasny. The Canadian Space Agency funded the pair, and a Canadian university science team led their contribution to the international BRIght Target Explorer constellation. Each nanosatellite carried a small telescope designed to measure brightness changes in prominent stars, supporting research on stellar structure, rotation, and mass loss.

BRITE-Toronto separated and entered operation. BRITE-Montreal failed to detach from the launch hardware, so it never began an independent mission even though it was carried on a successful orbital launch. Recording that outcome preserves the difference between “launched” and “deployed as a working satellite.”

AprizeSat-9, known in exactEarth’s service as exactView-11, shared the June 19 Dnepr launch. SpaceQuest supplied the U.S.-built platform, and exactEarth operated the Automatic Identification System data mission for ship tracking. The Canadian company used the spacecraft as a production part of its maritime monitoring network rather than as an experimental technology flight.

CanX-4 and CanX-5 launched on June 30 aboard an Antrix Polar Satellite Launch Vehicle C23 from India. Space Flight Laboratory operated the matched nanosatellites to demonstrate autonomous formation flying, centimeter-class relative navigation, intersatellite communications, and coordinated control. The pair changed their spacing and geometry in orbit, proving methods relevant to distributed telescopes, coordinated sensors, and inspection missions.

2015

ExactView-9 launched on September 28 aboard an Antrix Polar Satellite Launch Vehicle C30 from India. exactEarth operated the spacecraft to receive shipborne Automatic Identification System transmissions, with improved detection in crowded maritime regions. Space Flight Laboratory built the nanosatellite and supported operations, extending the commercial line that began with CanX-6 and the ADS spacecraft.

Telstar 12 VANTAGE launched on November 24 through Mitsubishi Heavy Industries Launch Services aboard an H-IIA from Tanegashima, Japan. Telesat operated the geostationary communications satellite over Europe, the Middle East, Africa, South America, and Atlantic routes. It combined spot beams with broad regional beams, allowing higher-capacity services for mobility, enterprise, government, and broadcast customers. The mission also displayed Telesat’s shift toward flexible international coverage rather than a fleet built only for Canada.

2016

M3MSat and GHGSat-D shared an Antrix Polar Satellite Launch Vehicle C34 flight from India on June 22, 2016. The Department of National Defence and the Canadian Space Agency sponsored M3MSat, short for Maritime Monitoring and Messaging Microsatellite. Defence Research and Development Canada operated the mission with support from exactEarth and Space Flight Laboratory. Its goals were to collect ship identification transmissions, test improved maritime-message handling, and demonstrate spacecraft technologies for government surveillance needs.

GHGSat-D, named Claire, was operated by Montreal-based GHGSat as a commercial greenhouse-gas measurement demonstrator. Its imaging spectrometer was designed to detect and quantify methane and carbon dioxide releases from individual industrial facilities, a much smaller target scale than the broad atmospheric maps produced by many public missions. The spacecraft proved that a compact satellite could support a paid emissions-monitoring service and established the technical line for GHGSat’s later constellation.

CanX-7 launched on September 26 aboard an Antrix Polar Satellite Launch Vehicle C35 from India. Space Flight Laboratory operated it to test two technologies: reception of Automatic Dependent Surveillance-Broadcast transmissions from aircraft and a drag sail for faster orbital disposal. The spacecraft collected aircraft-location data before deploying its sail, increasing atmospheric drag and demonstrating a passive method for shortening a small satellite’s time in orbit.

These missions changed the commercial center of gravity. Communications still generated substantial Canadian satellite revenue, yet maritime tracking, industrial emissions measurement, and low-cost spacecraft engineering were producing exportable data services. New Space Economy’s Canadian space company guide places GHGSat, SFL Missions, MDA Space, Telesat, and their suppliers within that larger industrial shift.

Canadian Satellites Launched from 2017 to 2021

2017

Ex-Alta 1 launched toward the International Space Station on April 18 aboard a United Launch Alliance Atlas V carrying Orbital ATK’s Cygnus OA-7 cargo spacecraft. The University of Alberta built and operated the 3U CubeSat as Canada’s contribution to the international QB50 research program. Nanoracks deployed it from the station on May 26.

The satellite measured the lower thermosphere and space-weather conditions with a multi-needle Langmuir probe and a University of Alberta digital fluxgate magnetometer. Educational goals included training students and establishing an enduring spacecraft program in Alberta. Ex-Alta 1 operated until November 2018 and provided a direct institutional path to Ex-Alta 2, which launched in 2023.

Helios Wire also made a launch attempt in 2017. Pathfinder I, also identified as Helios Wire BIU, lifted off from Vostochny on November 28 aboard a Roscosmos Soyuz-2.1b/Fregat mission marketed for international payloads through Russian launch organizations. The Vancouver operator planned to test short-burst, two-way S-band links for low-data-rate machine-to-machine sensors. A Fregat guidance error prevented the payload stack from reaching orbit, so Pathfinder I performed no operations and is recorded here as a failed launch rather than an orbiting Canadian satellite.

Canada’s United Nations registration filing issued in 2017 covered spacecraft from several earlier years, including NEOSSat, CASSIOPE, CanX-4, CanX-5, M3MSat, CanX-7, exactView-9, and GHGSat-D. Its timing is a reminder that registration publication year and launch year are different fields. A list built from the filing date would place multiple satellites in the wrong part of the chronology.

2018

Telesat LEO 1 launched on January 12 aboard an Antrix Polar Satellite Launch Vehicle C40 from India. Telesat commissioned the low Earth orbit demonstrator to test Ka-band broadband links, terminals, network management, low-latency applications, and interoperability for its proposed Telesat Lightspeed network. Surrey Satellite Technology Limited built the spacecraft, and Telesat directed the demonstration program from Canada. The prototype supported trials with telecommunications, government, maritime, and aviation partners before reaching the end of its useful mission.

Kepler Communications’ KIPP launched on January 19 aboard a Long March 11 from Jiuquan. China Great Wall Industry Corporation supplied the commercial launch service, and Innovative Space Logistics brokered Kepler’s ride. The Toronto company used the 3U CubeSat, built from three standardized CubeSat units, to demonstrate high-capacity Ku-band data transfer for customers in remote regions, including ships and research stations. KIPP established Kepler’s Global Data Service concept, which stored customer data aboard the satellite and delivered it during a later ground-station pass.

Telstar 19 VANTAGE launched on July 22 aboard a SpaceX Falcon 9 from Cape Canaveral. Telesat operated the geostationary high-throughput satellite at 63 degrees west to serve the Americas and North Atlantic with Ka-band and Ku-band capacity. Its goals included broadband for South America and northern Canada, mobility services, and regional enterprise communications.

Telstar 18 VANTAGE launched on September 10 aboard another SpaceX Falcon 9 from Cape Canaveral. Telesat and APT Satellite shared the commercial program, with Telesat operating its portion of the geostationary spacecraft. C-band and Ku-band coverage served Asia, the Pacific, and links between Asia and the Americas. The VANTAGE pair expanded Telesat’s high-throughput capacity on two sides of the planet within seven weeks.

Kepler’s CASE launched on November 29 aboard an Antrix Polar Satellite Launch Vehicle C43 from India. Operated by Kepler Communications, the 3U CubeSat extended the Ku-band data demonstration begun by KIPP and supported narrowband experiments related to machine-to-machine connectivity. KIPP and CASE were pathfinders, so their operational goals centered on validating radios, customer terminals, scheduling, and Arctic service economics before Kepler built a larger production fleet.

Two further Canadian missions reached orbit on Spaceflight’s SSO-A SmallSat Express rideshare on December 3. SpaceX supplied the Falcon 9 launch from Vandenberg, and Spaceflight arranged payload integration. Helios Wire’s 20 kg Pathfinder II, built by Astro Digital, demonstrated two-way S-band links for the Vancouver company’s planned low-data-rate Internet of Things and machine-to-machine network. Its operational test addressed sensor messaging for remote equipment without terrestrial connectivity.

Vesta was a 4 kg, 3U technology demonstrator built by Surrey Satellite Technology Limited for exactEarth. The Cambridge, Ontario operator used the spacecraft to test a two-way Very High Frequency Data Exchange System payload for its maritime information service. Unlike a conventional one-way Automatic Identification System receiver, the experiment was designed to support data exchange with ships as part of a later maritime communications architecture. Contemporary coverage of the two Canadian missions confirms that both flew on the same rideshare.

Seven Canadian spacecraft reached orbit in 2018. The group ranged from two geostationary satellites weighing several metric tons to CubeSats that could fit on a desk. That contrast helps explain the mixed industrial base examined in New Space Economy’s space ambitions analysis: established operators continued buying large capacity platforms as younger firms tested focused services on much smaller hardware.

2019

RADARSAT Constellation Mission (RCM) spacecraft RCM-1, RCM-2, and RCM-3 launched together on June 12, 2019, aboard a SpaceX Falcon 9 from Vandenberg. The Canadian Space Agency operates the three-satellite government system, and MDA built the spacecraft and ground segment under federal contracts. Each satellite carries C-band synthetic aperture radar and an Automatic Identification System receiver for maritime traffic data.

The constellation’s operational goals cover maritime surveillance, sea-ice mapping, disaster management, and monitoring of land, water, and natural resources. Three satellites provide more frequent revisits than one larger predecessor and support routine imaging of Canada’s extensive territory and maritime approaches. Natural Resources Canada, Fisheries and Oceans Canada, National Defence, Environment and Climate Change Canada, and other federal users turn the radar data into public services and operational products.

No Canadian commercial satellite joined the launch that year. The annual total of three was entirely government owned, yet the contract supported Canadian manufacturing, mission software, data processing, and ground operations. The RADARSAT Constellation Mission also preserved Canada’s long investment in spaceborne radar after RADARSAT-1 and RADARSAT-2.

2020

GHGSat-C1 Iris, exactEarth’s ESAIL, and Kepler’s TARS shared Arianespace’s Vega VV16 rideshare launch from Kourou on September 3, 2020, in Coordinated Universal Time. GHGSat operated Iris as its initial production satellite for detecting and measuring methane releases from individual industrial facilities. The spacecraft improved spatial resolution and measurement performance over the 2016 Claire demonstrator, moving the company from proof of concept toward a repeatable commercial monitoring service.

ESAIL was built by LuxSpace under a European Space Agency partnership and used by exactEarth for commercial maritime tracking. Its receiver collected Automatic Identification System transmissions from ships, expanding coverage and revisit frequency for vessel-location customers. The platform and European program were international, but exactEarth’s Canadian data mission and operating role placed ESAIL in Canada’s commercial record.

Kepler Communications operated TARS as its third pathfinder. The satellite tested Ku-band data transfer and narrowband connectivity before the company’s Generation 1 production run. Its operational goal was to increase experience with customer data delivery, ground scheduling, radios, and network software rather than supply a mature relay constellation by itself.

Kepler-4 and Kepler-5 launched on September 28 aboard a Soyuz-Fregat rideshare managed by GK Launch Services and Exolaunch from Plesetsk. Kepler built and operated the two 6U-XL spacecraft, named Antilles and Amidala in some catalogs, as its initial Generation 1 units. They increased capacity for the Global Data Service and carried narrowband equipment for connected devices in remote areas. In-house production in Toronto also tested whether the company could manufacture a constellation in batches rather than commission one spacecraft at a time.

York University’s DESCENT traveled aboard Northrop Grumman’s Antares and Cygnus NG-14 cargo mission on October 2, then deployed from the International Space Station through Nanoracks on November 5. The mission consisted of two small units designed to separate and extend an electrodynamic tether. York’s goal was to test whether a conductive tether interacting with Earth’s magnetic field could lower a small spacecraft’s orbit without propellant. Deployment problems prevented the full experiment, but students gained mission design, safety, licensing, and operations experience.

Six Canadian missions launched in 2020. Their goals included methane measurement, maritime tracking, satellite communications, connected-device service, and end-of-life disposal. The total mattered less than the business pattern: GHGSat, exactEarth, and Kepler planned to sell recurring data or network services rather than earn revenue only by delivering spacecraft hardware.

2021

SpaceX’s Transporter-1 mission carried nine Canadian satellites on January 24, 2021. GHGSat-C2 Hugo joined Iris in GHGSat’s industrial methane-monitoring constellation. Space Flight Laboratory built the 15-kilogram spacecraft, GHGSat operated the observation service, and SpaceX provided the Falcon 9 rideshare launch from Cape Canaveral.

The same flight carried Kepler-8, Kepler-9, Kepler-10, Kepler-11, Kepler-12, Kepler-13, Kepler-14, and Kepler-15. Kepler Communications built and operated all eight Generation 1 satellites for high-capacity data transfer and narrowband connectivity to remote devices. Their individual catalog nicknames varied, but their shared operational purpose was to increase network capacity, geographic availability, and the frequency of customer contact opportunities. A batch of eight also demonstrated serial production at Kepler’s Toronto facility.

Kepler-6 and Kepler-7 launched on March 22 aboard a Soyuz-2.1a and Fregat on the CAS500-1 rideshare mission from Baikonur. GK Launch Services managed the commercial campaign. Kepler operated the two Generation 1 units, also cataloged as Rocinante and C3PO, for the same Global Data Service and narrowband network. The numbering appears out of launch order because Kepler-8 through Kepler-15 flew in January before Kepler-6 and Kepler-7 reached orbit in March.

The year’s 11 Canadian satellites came from only two operators, GHGSat and Kepler. That concentration differed from 2013, when four spacecraft represented government science, defense, commercial broadcasting, and experimental communications. It reflected a constellation economy in which one company could place many small, nearly identical units into orbit on shared rockets.

Both operators still relied on foreign launch services and international supply relationships. SpaceX supplied the larger batch, and the Russian Soyuz campaign carried the remaining Kepler pair. New Space Economy’s Kepler company profile traces how that Generation 1 network became a stepping stone toward optical relay spacecraft with far greater mass and onboard computing capacity.

Canadian Satellites Launched in 2022 and 2023

2022

Kepler-16, Kepler-17, Kepler-18, and Kepler-19 launched on January 13, 2022, aboard SpaceX’s Transporter-3 Falcon 9 rideshare from Cape Canaveral. Kepler Communications built and operated the four Generation 1 satellites. Their shared goals were to expand high-capacity store-and-forward data delivery, increase narrowband coverage for connected devices, and add operating experience for an increasingly automated constellation. The batch raised Kepler’s deployed Generation 1 fleet to 15 spacecraft when the earlier units are counted.

GHGSat-C3, GHGSat-C4, and GHGSat-C5 launched on May 25 aboard SpaceX’s Transporter-5 Falcon 9 mission from Cape Canaveral. GHGSat operated the satellites, and Space Flight Laboratory built them on the same 15-kilogram NEMO platform used for Iris and Hugo. Each carried a spectrometer optimized for locating and measuring methane releases from individual facilities. Three launches at once increased revisit opportunities and allowed the company to observe more customer sites without waiting as long between suitable passes.

LORIS and ORCASat traveled to the International Space Station on November 26 aboard SpaceX’s Falcon 9 and Dragon Commercial Resupply Services 26 (CRS-26) cargo mission. Nanoracks later deployed them from the station in December. Dalhousie University operated LORIS, the Low Orbit Reconnaissance Imagery Satellite, to test a Canadian CubeSat frame, stabilization hardware, power storage, and imaging components. The mission joined technical training with a practical attempt to qualify lower-cost spacecraft hardware.

The University of Victoria operated ORCASat, the Optical Reference Calibration Satellite. Its goal was to act as a stable light source that ground observatories could observe, helping astronomers calibrate the brightness recorded by their instruments and reduce measurement uncertainty. ORCASat also gave students experience in spacecraft assembly, clean-room work, ground software, licensing, and daily operations. It was one of the opening flights of the Canadian CubeSat Project, a Canadian Space Agency program that funded student teams in every province and territory.

The annual total was nine when the two university spacecraft are added to the seven commercial satellites. All nine rode SpaceX Falcon 9 missions, although LORIS and ORCASat required a separate station deployment step. That common provider foreshadowed the near-total Canadian dependence on SpaceX rideshare and cargo flights later in the decade.

2023

Four Canadian CubeSat Project spacecraft launched to the International Space Station on March 14 aboard SpaceX’s Falcon 9 and Dragon CRS-27 mission. Nanoracks deployed the satellites after their station arrival. Ex-Alta 2, operated by the University of Alberta, carried instruments for wildfire imaging and space-weather measurement, plus open-source spacecraft hardware and software intended to help later academic teams. AuroraSat, operated by the Aurora Research Institute of Aurora College with northern partners, carried art, recorded Indigenous-language content, and amateur-radio activities built around cultural and educational participation.

Yukon University operated YukonSat for community outreach, coding projects, amateur radio, and measurements of Earth’s magnetic environment. McMaster University operated NEUDOSE, short for Neutron Dosimetry and Exploration, to test a compact instrument that distinguished charged particles from neutral radiation in low Earth orbit. Its research supported better estimates of radiation exposure for astronauts and spacecraft electronics.

Six commercial satellites launched on April 15 aboard SpaceX’s Transporter-7 Falcon 9 mission from Vandenberg. GHGSat-C6 Mey-Lin, GHGSat-C7 Gaspard, and GHGSat-C8 Océane were built by Space Flight Laboratory and operated by GHGSat for high-resolution methane monitoring at industrial sites. The three matched spacecraft increased observation frequency and supplied replacements or added capacity within the commercial fleet.

Kepler-20 and Kepler-21 shared the Transporter-7 flight. Kepler Communications built and operated the pair as later Generation 1 data and connected-device satellites, extending the network established by Kepler-4 through Kepler-19. Dragonette-001, also called EPICHyper-1, completed the Canadian group on that launch. AAC Clyde Space owned and operated the 6U platform under a data-service contract, and Edmonton-based Wyvern directed the hyperspectral imaging service. Its goal was to distinguish materials through many narrow wavelength bands for agriculture, environmental monitoring, and industrial analysis. This is a Canadian-led data mission rather than a Canadian-owned bus.

Five more student satellites launched toward the International Space Station on June 5 aboard SpaceX’s Falcon 9 and Dragon CRS-28 mission. Nanoracks deployed them in July. Concordia University operated SC-ODIN to image atmospheric dust over selected regions, measure radiation, and test a space computer component. York University operated ESSENCE to image snow, ice, permafrost regions, and forest conditions in northern Canada, and it also carried a particle detector for space-weather research.

The University of Saskatchewan operated RADSAT-SK to test a field-effect-transistor radiation dosimeter and a melanin-based shielding sample. The University of Manitoba operated IRIS to expose geological and meteorite-related samples to the orbital environment and examine changes caused by solar and cosmic radiation. Western University and Nunavut Arctic College operated Ukpik-1, which carried a camera system for immersive Earth imagery and supported classroom participation in Ontario and Nunavut.

UTAT Space Systems at the University of Toronto placed HERON Mk II on SpaceX’s Transporter-8 mission on June 12. The student-built CubeSat was designed to test a biological payload involving gene expression in a microgravity and radiation environment, along with a custom bus, attitude control, communications, and ground software. The University of Toronto Aerospace Team served as operator. SpaceX supplied the Falcon 9 launch, and a rideshare integrator handled deployment arrangements.

Dragonette-002 also launched on Transporter-8. AAC Clyde Space owned the EPICHyper-2 platform, and Wyvern contracted the hyperspectral data mission. Like Dragonette-001, it collected images in many narrow spectral bands to identify differences in vegetation, soil, water, and built materials that ordinary color imagery may miss. Its Canadian role lay in Wyvern’s tasking, product design, and data business rather than spacecraft ownership.

Telesat LEO 3 launched on July 18 aboard Rocket Lab’s Electron from Mahia, New Zealand. Space Flight Laboratory built the microsatellite, and Telesat operated the demonstration program. Ka-band and V-band payloads allowed customer and equipment-vendor testing after LEO 1 left service. The satellite supported terminal trials, modem work, network experiments, and risk reduction for Telesat Lightspeed without being an operational member of the planned large constellation.

Seven Canadian commercial missions launched on November 11 aboard SpaceX’s Transporter-9 Falcon 9 flight from Vandenberg. GHGSat-C9, GHGSat-C10, and GHGSat-C11 carried GHGSat methane-monitoring instruments on Spire Global satellite buses. Spire owned and operated the platforms as a space-services provider, and GHGSat controlled the observation mission and emissions-data product. These are hosted Canadian missions, not wholly Canadian spacecraft.

AETHER-1 and AETHER-2 were Kepler Communications relay-terminal demonstrations hosted on Spire spacecraft. Their goal was to test technology for near-continuous links between satellites and ground networks, reducing the delays created when a low Earth orbit spacecraft can communicate only during brief ground-station passes. Kepler operated the terminal service portion, Spire operated the host buses, and SpaceX supplied the launch.

Dragonette-003 completed Wyvern’s three-spacecraft EPICHyper service under the AAC Clyde Space arrangement. The hyperspectral mission increased the frequency with which Wyvern could collect data for agriculture, forestry, environmental analysis, and resource customers. Dragonette-002 had launched in June, so only Dragonette-001 and Dragonette-003 flew on Transporter-7 and Transporter-9, respectively.

The 2023 total was 24 under the combined spacecraft and hosted-mission scope: 10 university CubeSats, six GHGSat missions, four Kepler spacecraft or hosted terminals, three Wyvern data-service satellites, and Telesat LEO 3. Some published year-end tallies gave 23 because they omitted LEO 3 or applied a different national test. Stating the inclusion rule resolves the apparent contradiction without treating one catalog as universally correct.

Launch concentration was almost as striking as the volume. SpaceX carried 23 of the 24 Canadian missions, including the cargo flights that later released student CubeSats from the station. Rocket Lab carried only LEO 3. The fleet was institutionally diverse: student teams studied radiation, atmosphere, geology, biology, northern culture, and imaging, and commercial operators sold methane, hyperspectral, communications, and test services.

Canadian Satellites Launched in 2024 and 2025

2024

NorthStar-1, NorthStar-2, NorthStar-3, and NorthStar-4 launched on January 31, 2024, aboard Rocket Lab’s Four of a Kind Electron mission from Mahia, New Zealand. Montreal-based NorthStar Earth and Space commissioned the optical space-surveillance service, and Spire Global built, owned, and operated the 12U satellite buses. NorthStar controlled the service concept and used the imagery and derived data to track satellites and debris in low Earth orbit, support conjunction screening, and improve knowledge of object motion.

The four spacecraft are also cataloged under Spire LEMUR-2 names, reflecting who controlled the buses and radio licenses. They are Canadian-led hosted missions rather than wholly Canadian-owned satellites. Their operational goal differs from Sapphire’s: Sapphire looks outward from a higher orbit toward distant objects, whereas the NorthStar satellites use optical sensors from low Earth orbit to observe other objects in nearby orbital regions. Technical and contractual disputes later affected the program, but all four reached orbit and belong in the 2024 launch record.

Killick-1, VIOLET, and QMSat launched to the International Space Station on March 21 aboard SpaceX’s Falcon 9 and Dragon Commercial Resupply Services 30 (CRS-30) cargo mission. Voyager Space’s Nanoracks team deployed the three CubeSats from the station on April 18. They closed the original Canadian CubeSat Project launch campaign, which placed 14 of 15 selected projects into space; the University of Prince Edward Island’s SpudNik-1 did not complete flight preparation.

Memorial University operated Killick-1. Its Global Navigation Satellite System reflectometry experiment measured radio transmissions reflected from the ocean and sea ice, testing a low-cost method for estimating ice conditions and other surface properties. The mission joined student training with research relevant to Newfoundland and Labrador, northern waters, weather models, and climate studies.

The University of New Brunswick operated VIOLET. Its receiver observed how navigation transmissions changed as they passed through the ionosphere, supporting research on upper-atmosphere structure and space weather. Cameras observed auroral and airglow emissions and supplied Earth imagery for meteorology and environmental studies. QMSat, operated by Université de Sherbrooke, carried a diamond-based quantum magnetometer designed to measure the direction and strength of Earth’s magnetic field. Its goal was to test whether a compact quantum sensor could improve magnetic measurements from a small satellite.

Seven Canadian spacecraft or hosted missions launched in 2024. Rocket Lab carried four commercial space-surveillance platforms, and SpaceX carried three academic spacecraft as station cargo. The mix gave the year a strong emphasis on orbital safety, ionospheric research, ocean and ice observation, quantum sensing, and student workforce development rather than communications or broadcasting.

2025

Project Gray Jay-1, Gray Jay-2, and Gray Jay-3 launched on January 14, 2025, aboard SpaceX’s Transporter-12 Falcon 9 mission from Vandenberg. Defence Research and Development Canada led the program for the Department of National Defence, with Space Flight Laboratory developing the formation-flying spacecraft. The trio flew in coordinated low Earth orbits to test sensors, data fusion, autonomous operations, and surveillance methods suited to Canada’s Arctic approaches.

The Gray Jay program was experimental rather than a declared permanent surveillance constellation. Its goal was to learn how several small satellites could combine observations and pass useful information to defense users at lower cost and shorter revisit intervals. The mission connected satellite engineering with the Arctic communications, monitoring, and sovereignty issues discussed in New Space Economy’s review of satellite services for Arctic security.

Dragonette-004 launched on March 15 aboard SpaceX’s Transporter-13 mission. Wyvern’s hyperspectral instrument flew as a hosted payload on Loft Orbital’s YAM-8 spacecraft. Wyvern directed the imaging product and customer service, Loft owned and operated the satellite platform, and SpaceX provided the Falcon 9 launch. The payload expanded Wyvern’s ability to observe vegetation, minerals, water, and industrial sites through narrow spectral bands.

Five Canadian satellites or hosted missions launched on June 23 aboard SpaceX’s Transporter-14 Falcon 9 mission from Vandenberg. EarthDaily Constellation 1, also called EDC-01, EDA-1, or YAM-10 in different program records, carried an EarthDaily Analytics imaging suite on a Loft Orbital platform. The Vancouver company designed the observation mission to collect consistent multispectral and thermal measurements for agriculture, environmental monitoring, mining, insurance, and government analysis. Loft operated the host spacecraft, so the entry is a Canadian-led hosted mission.

MÖBIUS-1 was the opening spacecraft operated by Halifax-based Galaxia Mission Systems. Galaxia designed its software-defined platform so customers could upload and change onboard applications, run edge processing, and use one satellite for more than one observation or computing task. Earth observation and maritime monitoring formed initial applications. SpaceX provided launch, and Exolaunch supplied integration and deployment services.

GHGSat-C12 Pierre and GHGSat-C13 Valmay launched on the same flight. Space Flight Laboratory built the 15-kilogram satellites, and GHGSat operated them for industrial methane detection and quantification. They extended the architecture used from Claire through C8, pairing a Canadian-built bus with Canadian sensors, mission control, and commercial emissions products.

LEMUR-2-KRISH carried Mission Control Space Services’ Mission Persistence payload on a Spire Global bus. Ottawa-based Mission Control operated the Canadian experiment, and Spire controlled the host satellite. The payload tested onboard artificial-intelligence software and autonomous decision-making so a spacecraft could process observations and adjust activity with less ground intervention. SpaceX supplied the orbital launch through Transporter-14.

GHGSat-C14 Teodor and GHGSat-C15 Laila launched on November 28 aboard SpaceX’s Transporter-15 Falcon 9 mission. Spire built and operated the LEMUR-2 platforms, and GHGSat supplied and controlled the methane-monitoring payloads and data service. Their hosted architecture reduced the need for GHGSat to procure and operate every spacecraft bus itself, although the company still defined target selection, sensor use, calibration, and customer products.

Dragonette-005 shared Transporter-15. Wyvern’s hyperspectral camera flew on Loft Orbital’s YAM-9 platform, with Exolaunch managing launch integration. Wyvern operated the observation service and Loft operated the host bus. Dragonette-004 and Dragonette-005 moved the company from dedicated AAC Clyde Space CubeSats toward hosted instruments, changing ownership without changing the Canadian commercial purpose.

The 2025 total was 12: three Gray Jay spacecraft, two Wyvern hosted payloads, four GHGSat satellites or hosted instruments, one EarthDaily hosted mission, MÖBIUS-1, and the Mission Persistence payload. Every entry rode a SpaceX Falcon 9 from Vandenberg. Rocket procurement had become simpler and more standardized, but provider concentration increased at the same time.

The operator mix also changed the meaning of national output. Only Gray Jay belonged to the federal government, and the university campaign paused after its 2024 deployments. Commercial companies accounted for nine missions, with several buying hosted capacity instead of owning complete buses. New Space Economy’s profiles of large Canadian space companies give the corporate setting for that shift from hardware programs toward recurring observation and network services.

Canadian Satellites Launched in 2026 Through July 10

January 11

AETHER-3, AETHER-4, AETHER-5, AETHER-6, AETHER-7, AETHER-8, AETHER-9, AETHER-10, AETHER-11, and AETHER-12 launched together on January 11 aboard SpaceX’s Falcon 9 Twilight mission from Vandenberg. Kepler Communications built the 10 spacecraft in Toronto and operates the optical data-relay system. Each satellite has a launch mass near 300 kilograms, far larger than Kepler’s Generation 1 CubeSats.

Their operational goal is to move data between low Earth orbit spacecraft and ground networks with far less delay than a conventional ground-station schedule permits. Optical crosslinks connect AETHER satellites to one another, radio or optical terminals connect customer spacecraft, and onboard computers process or route data before downlink. The platform also carries hosted customer instruments and computing workloads. Kepler’s architecture treats the constellation as communications and computing infrastructure for other space missions rather than a network built mainly to connect devices on Earth.

The names begin at AETHER-3 because two smaller hosted terminal demonstrations, AETHER-1 and AETHER-2, launched in 2023. Those pathfinders tested parts of the relay concept on Spire platforms. The 2026 batch consists of dedicated Kepler spacecraft and marks the move from terminal testing to a production optical network.

May 3

EDC-02, EDC-03, EDC-04, EDC-05, EDC-06, and EDC-07 launched on May 3 aboard SpaceX’s Falcon 9 CAS500-2 rideshare mission from Vandenberg. EarthDaily Analytics operates the Canadian observation mission and data service, and Loft Orbital supplies and operates the host platforms. The six units joined EDC-01 from 2025, bringing seven EarthDaily payloads into orbit.

Each EarthDaily instrument suite observes Earth across 22 spectral bands using 16 imaging systems. The mission is designed for repeatable measurements with consistent viewing geometry and observation time, supporting agriculture, resource monitoring, environmental analysis, insurance, disaster response, and government use. The service emphasizes calibrated, analysis-ready data that can be compared from day to day, rather than occasional images of isolated targets. SpaceX was the launch provider, and Loft managed platform integration.

FrontierSat, also called CTS-SAT-1, shared the CAS500-2 launch. A University of Calgary student team developed and operates the 3U CubeSat with support from the Canadian Space Agency and the European Space Agency’s Fly Your Satellite program. Its Mini Plasma Imager measures ion motion and temperature in the ionosphere, contributing to research on subauroral phenomena such as Strong Thermal Emission Velocity Enhancement. A camera also observes the deployment of a composite lattice boom, testing a compact structure for later small spacecraft.

July 7

GHGSat-C16 Eleonore and C17 Nuray launched aboard SpaceX’s Transporter-17 Falcon 9 mission from Vandenberg on July 7. GHGSat supplied and controls the methane-sensing payloads and emissions service. Spire Global built and operates the LEMUR-2 host buses under the names LEMUR-2-ELEONORE and LEMUR-2-NURAY. The two additions increase revisit capacity for locating and measuring methane releases at industrial sites.

EarthDaily EDC-08, also called Loft-EarthDaily-8 or EDA-8, flew on the same Transporter-17 mission. EarthDaily Analytics directs the multispectral observation service, and Loft Orbital operates the host platform. The payload expanded EarthDaily’s deployed set to eight and shares the same goal as EDC-01 through EDC-07: consistent measurements for detecting changes in crops, water, resources, infrastructure, and environmental conditions.

MARMOTSat completed the Canadian group on Transporter-17. The University of Victoria designed and operates the 3U CubeSat through its Centre for Aerospace Research and student satellite team. The Mission for Atmospheric Radio Measurements with Open-source Technology Satellite studies relationships between ionospheric structure and human-caused climate change, and it tests an open-source radio system. The Canadian Space Agency launch notice confirms its placement into a sun-synchronous orbit for consistent observations.

The 2026 count through July 10 is 21: 10 dedicated Kepler spacecraft, six EarthDaily payloads launched in May, FrontierSat, two GHGSat hosted missions, EDC-08, and MARMOTSat. Every entry used a SpaceX Falcon 9 from Vandenberg. The launch list does not include later 2026 plans, even when an operator has announced a target date. A planned satellite becomes part of the chronology only after its rocket reaches orbit.

What the 2000 to 2026 Record Reveals About Canada

Canada’s satellite activity changed from occasional large spacecraft to frequent mixed batches, but the change did not eliminate the older model. Telesat still operates geostationary Anik, Nimiq, and Telstar assets, and the government still depends on substantial radar spacecraft. Small satellites added another layer rather than replacing every multiton platform. The right spacecraft size follows the mission: direct broadcast and high-throughput relay capacity favor large power systems and antennas, whereas student experiments, emissions sensors, and technology demonstrations can fit on smaller buses.

The operator base widened. At the start of the period, Telesat dominated annual launches, with the Canadian Space Agency appearing in science years. By 2026, Kepler, GHGSat, EarthDaily, Wyvern, NorthStar, Galaxia, Mission Control, universities, and defense organizations all appeared in the record. Canada’s industrial strength became less concentrated in one satellite category. Communications, radar, atmospheric science, astronomy, maritime tracking, methane measurement, hyperspectral imaging, onboard computing, and space-object tracking now coexist.

Constellations changed annual counts. A single Telesat launch could represent years of commercial capacity in the 2000s, yet later years counted many small units with a shared design and goal. A count of 10 AETHER satellites does not mean 10 unrelated programs; it means one network deployed in a batch. Annual totals should be read beside operator, mission, mass, and architecture, not treated as a standalone measure of national capability.

Hosted payloads made nationality harder to assign. A GHGSat instrument on a Spire bus can support a Canadian-controlled data business even though a U.S. company owns and flies the host spacecraft. A Wyvern camera on a Loft satellite follows the same pattern. Counting the host as wholly Canadian is inaccurate, but omitting the Canadian mission would hide real commercial activity. Separating dedicated spacecraft from hosted missions gives a more faithful account of ownership and value creation.

Launch geography did not diversify with the operator base. No satellite in this 2000 to July 2026 chronology launched from Canadian soil. Canada purchased launches from Europe, Russia, India, China, Japan, New Zealand, and the United States, and SpaceX became overwhelmingly dominant after 2020. All 12 missions in 2025 and all 21 entries through July 10, 2026 used Falcon 9. A schedule interruption, pricing change, export rule, or policy dispute involving one provider could affect several Canadian operators at once.

Federal work toward domestic launch regulation and facilities responds to that exposure, though it has not yet produced an orbital satellite launch from Canada. New Space Economy’s account of the quest for sovereign launch describes proposed spaceports, launch companies, public funding, and the long distance between a construction announcement and a reliable service. Domestic launch would add choice, but Canadian operators would still compare price, orbit, schedule, and flight record against established foreign providers.

Government missions also shifted toward operational services shared across departments. RADARSAT Constellation data supports ice, maritime, disaster, environmental, and defense work. Sapphire contributes to allied space-object tracking, and Gray Jay tests distributed Arctic surveillance. This cross-department demand means satellite procurement includes ground systems, data rights, security, licensing, training, and long-term operations. The spacecraft is only one part of the public service being purchased.

Commercial value moved toward repeated data delivery. GHGSat sells emissions measurements, EarthDaily sells calibrated observation products, Wyvern sells hyperspectral information, and Kepler plans network and compute services. Revenue can continue after launch through subscriptions, tasking, analytics, capacity contracts, or service agreements. Manufacturing remains important, but a Canadian company can now control a valuable orbital mission without building or owning every bus.

Universities became operators rather than classroom observers. CanX-1 began that pattern in 2003, and later teams flew formation control, deorbit hardware, astronomy telescopes, calibration sources, quantum sensors, radiation experiments, and ionospheric instruments. The 2022 to 2024 Canadian CubeSat Project distributed flight experience across the country. FrontierSat and MARMOTSat continued the line in 2026 through separate programs.

Regulation grew more relevant as the fleet became commercial and data-centered. Innovation, Science and Economic Development Canada licenses satellite spectrum, and remote-sensing systems may require authorization under the Remote Sensing Space Systems Act. Registration, debris mitigation, export controls, cybersecurity, data policy, and access to radio frequencies shape whether a mission can operate after the rocket flight. National satellite policy cannot be reduced to launch procurement.

The record also warns against treating announced dates as accomplished missions. Telesat Lightspeed, WildFireSat, QEYSSat, and new university CubeSats appeared in planning documents during the period, but their status and schedules changed. The year-by-year list stops at confirmed orbital events. That rule preserves a clear boundary between hardware in space, hardware awaiting launch, funded development, and proposals seeking money.

Canada’s 26-year record is best understood as a move from satellites as individual national assets toward satellites as parts of services, fleets, and international supply chains. Ownership can sit with one company, bus control with another, payload operation with a Canadian customer, and launch with a third organization in another country. The resulting system creates more routes for Canadian firms and universities to reach orbit, yet it also makes contracts, data rights, licensing, and provider access as consequential as spacecraft construction.

Summary

The most useful national satellite catalog is not a single number. It is a set of linked facts about who controls the mission, who owns the platform, what service the payload performs, who carried it to orbit, and whether it actually deployed. Canada now needs all five fields to describe its orbital activity accurately. The older shorthand, in which nationality followed the owner of one complete spacecraft, no longer captures hosted instruments, space-services contracts, multinational platforms, or student satellites delivered through the International Space Station.

That classification issue has practical consequences. Government procurement officers need to know who controls data and tasking. Regulators need to know which entity holds spectrum and remote-sensing authorizations. Investors need to distinguish a company with recurring data revenue from a manufacturer paid once for hardware. Customers need clarity about service continuity if the Canadian payload operator, foreign bus operator, or launch provider experiences a disruption.

Canada’s public records remain distributed across United Nations filings, federal mission pages, company announcements, launch manifests, university sites, and orbital catalogs. A maintained national database could connect those sources without forcing every organization into one definition of nationality. Separate fields for registry state, owner, bus operator, payload operator, Canadian content, launch provider, deployment method, mission status, and service purpose would preserve the distinctions that matter.

The year-by-year record also gives a better measure of continuity than a launch total. Telesat’s large spacecraft created long-lived communications infrastructure, the RADARSAT line supplied recurring public observations, and small commercial fleets increased measurement frequency. University missions added trained operators and flight-tested components. Each path produces a different kind of national capability, and none can be measured fairly by counting spacecraft alone.

From 2000 through July 10, 2026, Canada moved from a schedule dominated by occasional geostationary communications satellites to one that can include 10 or more small commercial spacecraft on one rocket. The same period retained long-duration science, radar, defense, and broadcast programs. Canada’s satellite story is now a combination of continuity and multiplication: longstanding operators maintain infrastructure, and newer firms deploy sensors, terminals, software, and data services through dedicated or hosted missions.

Appendix: Comprehensive Canadian Satellite Launch Table

The table consolidates every qualifying spacecraft, hosted mission, and failed launch in the 2000 through July 10, 2026 chronology. Satellites sharing an operator, goal, launch date, and provider appear in one row.

Appendix: Useful Books Available on Amazon

• The Canadian Space Program
• Space 2.0
• The Space Economy
• When the Heavens Went on Sale
• The Space Barons

Appendix: Top Questions Answered in This Article

What Counts as a Canadian Satellite?

A spacecraft counts in the core record when a Canadian government body, company, university, or nonprofit organization owns, operates, or commissions it for a Canadian-controlled mission. Canadian-built spacecraft operated for foreign customers are excluded. Hosted Canadian payloads appear separately because they create Canadian services without making the complete foreign-owned bus Canadian.

Which Year Recorded the Most Canadian Launches?

The 2023 total reaches 24 under the combined spacecraft and hosted-mission scope used here. It includes 10 university CubeSats, six GHGSat missions, four Kepler missions, three Wyvern data-service satellites, and Telesat LEO 3. Some published tallies show 23 because they omit LEO 3 or use a narrower nationality test.

Why Do Canadian Satellite Totals Differ Between Sources?

Sources apply different rules for ownership, registration, payload nationality, and deployment date. A hosted sensor may count as a Canadian commercial mission but remain registered under the foreign host spacecraft. CubeSats carried to the International Space Station also have a rocket launch date and a later deployment date, which can produce different annual assignments near year boundaries.

Did Any Satellite in the Period Launch From Canada?

No satellite in the 2000 to July 10, 2026 chronology launched from Canadian territory. Canadian operators bought services from launch organizations in Europe, Russia, India, China, Japan, New Zealand, and the United States. Domestic spaceport and rocket projects remained under development and had not conducted an orbital satellite launch by the cutoff date.

Which Launch Provider Carried the Most Recent Canadian Missions?

SpaceX carried every Canadian spacecraft or hosted mission listed for 2025 and every entry through July 10, 2026. Falcon 9 rideshare flights also handled large Canadian batches in 2021, 2022, and 2023. Rocket Lab carried four NorthStar missions in 2024 and Telesat LEO 3 in 2023, but its Canadian volume was much smaller.

What Were Canada’s Main Government Satellite Goals?

Government missions covered radar Earth observation, maritime surveillance, Arctic awareness, atmospheric science, astronomy, and space-object tracking. RADARSAT Constellation supports several federal departments, Sapphire contributes orbital tracking data, and Gray Jay tests coordinated northern surveillance. Science spacecraft such as SCISAT and NEOSSat pursue atmospheric or astronomical research under Canadian public programs.

How Did Canadian University CubeSats Reach Orbit?

Many university CubeSats traveled as cargo aboard SpaceX Dragon missions to the International Space Station. A commercial deployer later released them into independent orbits after station safety checks. Other academic spacecraft, including FrontierSat and MARMOTSat, launched directly on Falcon 9 rideshare missions and separated without passing through the station.

What Is a Hosted Canadian Payload?

A hosted payload is a Canadian instrument, terminal, or software mission attached to a spacecraft platform owned or operated by another organization. GHGSat instruments on Spire buses and Wyvern cameras on Loft Orbital platforms are examples. The Canadian company controls the measurement or data service, and the host company controls the shared spacecraft bus.

Why Did Small Satellites Increase Canada’s Annual Count?

Rideshare pricing, standardized CubeSat formats, compact sensors, and batch manufacturing let operators launch several units on one rocket. Constellations also need multiple spacecraft to improve revisit time or network availability. One batch can contain 10 related satellites, so a higher annual count may describe one network deployment rather than 10 independent programs.

Which Announced Canadian Missions Are Excluded?

The chronology excludes missions that had not reached orbit by July 10, 2026. That group includes later Telesat Lightspeed plans, WildFireSat, QEYSSat, and university spacecraft awaiting future flights. Funded development, signed launch contracts, and announced target dates do not become completed launches until the rocket places the payload into orbit.

Appendix: Glossary of Key Terms

CubeSat

A CubeSat is a small spacecraft assembled from standardized units measuring roughly 10 centimeters on each side. The format gives universities and companies access to common deployers and components, although larger 6U, 12U, and 16U versions can carry capable sensors and communications equipment.

Hosted Payload

A hosted payload is an instrument, terminal, or computing package carried on a spacecraft owned or operated by another organization. The payload customer controls its mission or data product, and the platform company supplies power, pointing, communications, and routine bus operations.

Satellite Bus

The satellite bus is the supporting spacecraft platform around a payload. It supplies structure, electrical power, thermal control, attitude control, onboard computing, and communications, allowing the mission instrument to operate and send its data to the ground.

Geostationary Orbit

A geostationary satellite circles Earth above the equator at the same rate that Earth rotates. It appears fixed over one longitude, which suits broadcasting and continuous communications but requires a distant orbit about 35,786 kilometers above the equator.

Low Earth Orbit

Low Earth orbit covers spacecraft circling relatively close to Earth, commonly at altitudes of a few hundred to about 2,000 kilometers. Satellites there move rapidly across the sky, so constellations or ground-station networks are often needed for frequent coverage.

Synthetic Aperture Radar

Synthetic aperture radar sends microwave energy toward Earth and measures the returned energy to create images. It can observe through cloud and darkness, making it useful for sea ice, ships, floods, ground movement, agriculture, and resource monitoring.

Automatic Identification System

The Automatic Identification System is a maritime broadcast system through which ships transmit identity, position, course, and speed information. Satellite receivers extend detection beyond coastal stations, although crowded waters require processing methods that separate overlapping transmissions.

Space-Domain Awareness

Space-domain awareness is knowledge of objects, activity, and conditions in orbit. Optical sensors, radar, catalogs, and orbit calculations help operators identify close approaches, monitor debris, understand spacecraft behavior, and protect government or commercial missions.

Hyperspectral Imaging

Hyperspectral imaging records reflected energy in many narrow wavelength bands instead of a few broad colors. The resulting spectral patterns can help distinguish crops, minerals, water conditions, vegetation stress, and manufactured materials that look similar in ordinary imagery.

Sun-Synchronous Orbit

A sun-synchronous orbit passes over a location at nearly the same local solar time on each visit. Consistent illumination and viewing conditions help Earth observation teams compare images and measurements collected on different days.

Optical Data Relay

Optical data relay uses lasers to move information between spacecraft or from space to ground terminals. Laser links can carry high data rates, and a network of relay satellites can reduce the wait for a customer spacecraft to pass over a ground station.

Remote Sensing

Remote sensing gathers information about Earth without direct physical contact, using cameras, radar, spectrometers, or radio receivers aboard aircraft and satellites. Canadian missions apply it to weather, agriculture, oceans, ice, emissions, resources, disasters, and national security.