Xona Space Systems Canada is a Vancouver space-navigation company developing the Canadian elements, user equipment and service operations for the Pulsar low-Earth-orbit positioning, navigation and timing system.
Operating context
Xona's Pulsar service is developing low-Earth-orbit positioning, navigation and timing infrastructure for receivers that need an alternative or complement to GNSS. Furuno reported live Pulsar0 reception in Japan and continued reception during a July 2026 trial that spoofed GNSS signals. That trial supports receiver integration progress, not comprehensive interference immunity. Xona's August 2026 authorization announcement still scheduled its first six production satellites for October; full constellation service was not established by the inspected releases.
Canadian footprint
CanadaBuys identifies the contractor's standardized name as Xona Space Systems Canada and its business address as 1001 rue Lenoir, Unit B340, Montreal, Quebec H4C 2Z6. This Canadian contracting presence is distinct from the parent group's US satellite manufacturing and constellation activities.
Vancouver, British Columbia is the published city-level context for Xona Space Systems Canada. It does not imply a street address or exact facility location.
Xona combines a Canadian PNT-vulnerability research contract with parent-level development of a LEO navigation service. Receiver demonstrations and FCC authorization advance the programme, but near-term engagement should distinguish Canadian research work from a fully deployed constellation.
Interpretation of the public record. Not qualification, endorsement or evidence of buyer interest.
Resilient low-Earth-orbit positioning, navigation and timing service
Read technical summary
Xona is developing Pulsar, a LEO positioning, navigation and timing service using stronger signals, authentication and software-defined spacecraft. Its planned 258-satellite architecture includes future crosslink-based timing enhancements. Pulsar-0 has supported field evaluations; Furuno confirms reception in Japan and during a July 2026 GNSS-spoofing trial. Xona announced production-constellation authorization in August but scheduled its first six production satellites for October. Receiver tests and simulated convergence improvements do not establish continuous global service.
Evidence of maturity
On-orbit demonstrator and receiver-integration evaluations precede production rollout. Furuno’s September paper announcement reports simulated convergence potential, not a universal measured navigation guarantee.
Commercial availability
Partner receiver integration and staged deployment are underway; continuous constellation service is not established. Confirm receiver support, coverage, authentication features and service timing for the intended application.
Core features
Software-defined LEO navigation and timing architecture
Planned 258-satellite constellation with future crosslink timing enhancements
Pulsar-0 reception evaluated by Furuno during GNSS spoofing
Canadian timing-resilience research collaboration with NRC
Xona announced FCC authorization for its planned constellation on August 3, 2026, with the first six production satellites scheduled for October. On August 4, Furuno reported live Pulsar reception in Japan and a July evaluation during GNSS-targeted spoofing. These are authorization and receiver-validation milestones, ahead of full constellation rollout.
CanadaBuys records a CAD973,894.81 research contract awarded to Xona Space Systems Canada on March 10, 2026 to assess Canadian PNT vulnerabilities under DRDC’s CSSP2025CP2704, with expiry March 31, 2028. This Canadian research award is separate from parent-group financing.
Ecosystem relationships
Space Technology Development Program contribution recipient
Canadian Space Agency
The Canadian Space Agency supported Xona Space Systems Canada's LEO PNT, ionospheric-sensing and Canadian receiver work; these contributions do not establish CAF procurement or operational certification.
Reviewed connections
Mission area · Reviewed connectionEvidence strength: High
CSA records explicitly connect Xona's LEO PNT work to ionospheric sensing and navigation degradation in the Canadian Arctic, while current company material describes polar coverage goals; full service availability remains prospective.
What Canadian engineering deliverables sit within CW2443556, and when will production Pulsar coverage be available to Canadian users?
The contract's historical duration field predates its award date; full constellation availability and Canadian workshare in parent manufacturing remain unverified.
Original sources 12 linked records
These records support the organization, its owned capabilities and their reviewed connections. A source count is not a count of independent confirmations.
Furuno reports Japanese reception of Pulsar0 and continued reception during a GNSS-targeted spoofing trial. This is receiver/test evidence rather than proof of operational global coverage or immunity to attacks targeting Pulsar.
Supports: Profile · operating context
Furuno reports Japanese reception of Pulsar0 and continued reception during a GNSS-targeted spoofing trial. This is receiver/test evidence rather than proof of operational global coverage or immunity to attacks targeting Pulsar.
Supports: Profile · current activity as of
Furuno reports Japanese reception of Pulsar0 and continued reception during a GNSS-targeted spoofing trial. This is receiver/test evidence rather than proof of operational global coverage or immunity to attacks targeting Pulsar.
Supports: Profile · executive relevance summary
Source location: executiveRelevanceSummary
Furuno reports Japanese reception of Pulsar0 and continued reception during a GNSS-targeted spoofing trial. This is receiver/test evidence rather than proof of operational global coverage or immunity to attacks targeting Pulsar.
CanadaBuys names Xona Space Systems Canada in Montreal for a CAD973,894.81 contract awarded March10 2026 to assess Canadian PNT vulnerabilities under CSSP2025CP2704, expiring March31 2028.
Supports: Profile · disclosed financing summary
CanadaBuys names Xona Space Systems Canada in Montreal for a CAD973,894.81 contract awarded March10 2026 to assess Canadian PNT vulnerabilities under CSSP2025CP2704, expiring March31 2028.
Xona reports Pulsar-0 in orbit and signals under test, while its June 2026 newsroom material describes a Canadian Arctic coverage objective; the full planned constellation remains a future service rollout.
Supports: Profile · profileData.currentActivity
Xona reports Pulsar-0 in orbit and signals under test, while its June 2026 newsroom material describes a Canadian Arctic coverage objective; the full planned constellation remains a future service rollout.
Supports: Profile · current activity
Xona reports Pulsar-0 in orbit and signals under test, while its June 2026 newsroom material describes a Canadian Arctic coverage objective; the full planned constellation remains a future service rollout.
Xona Space Systems Canada is a Vancouver space-navigation company developing the Canadian elements, user equipment and service operations for the Pulsar low-Earth-orbit positioning, navigation and timing system.
Supports: Profile · canadian footprint
Xona Space Systems Canada has a documented Canadian operating presence in Vancouver, British Columbia.
Xona states that FCC authorization covers its planned constellation of more than250 satellites and schedules the first six production satellites for October2026.
Public sources cited · Facts and assessments kept separate · Human review
Resilient authenticated PNT could support autonomous platforms operating where legacy GNSS is degraded, but no CAF platform integration is publicly established.
Reviewed connections indicate possible relevance based on public evidence. They do not indicate procurement direction, eligibility, endorsement or customer interest.
CanadaBuys names Xona Space Systems Canada in Montreal for a CAD973,894.81 contract awarded March10 2026 to assess Canadian PNT vulnerabilities under CSSP2025CP2704, expiring March31 2028.
CanadaBuys names Xona Space Systems Canada in Montreal for a CAD973,894.81 contract awarded March10 2026 to assess Canadian PNT vulnerabilities under CSSP2025CP2704, expiring March31 2028.
Supports: Profile · executive relevance summary
Source location: executiveRelevanceSummary
CanadaBuys names Xona Space Systems Canada in Montreal for a CAD973,894.81 contract awarded March10 2026 to assess Canadian PNT vulnerabilities under CSSP2025CP2704, expiring March31 2028.
Supports: Profile · canadian footprint
CanadaBuys names Xona Space Systems Canada in Montreal for a CAD973,894.81 contract awarded March10 2026 to assess Canadian PNT vulnerabilities under CSSP2025CP2704, expiring March31 2028.
CanadaBuys names Xona Space Systems Canada in Montreal for a CAD973,894.81 contract awarded March10 2026 to assess Canadian PNT vulnerabilities under CSSP2025CP2704, expiring March31 2028.
Supports: Profile · current activity as of
Xona supports 2026-06-08 as the material date used for this dossier activity note.
Supports:
The Canadian Space Agency supported Xona Space Systems Canada's LEO PNT, ionospheric-sensing and Canadian receiver work; these contributions do not establish CAF procurement or operational certification.
Supports: Space Technology Development Program contribution recipient relationship
Source location: relationships.0.publicSummary
The Canadian Space Agency supported Xona Space Systems Canada's LEO PNT, ionospheric-sensing and Canadian receiver work; these contributions do not establish CAF procurement or operational certification.
Supports: Profile · current activity
Xona states that FCC authorization covers its planned constellation of more than250 satellites and schedules the first six production satellites for October2026.
Supports: Profile · executive relevance summary
Source location: executiveRelevanceSummary
Xona states that FCC authorization covers its planned constellation of more than250 satellites and schedules the first six production satellites for October2026.
Xona August3 2026 announces FCC permission for production constellation broadcasting while scheduling its first six production satellites for October. Authorization is separate from deployment and continuous global service.
Xona August3 2026 announces FCC permission for production constellation broadcasting while scheduling its first six production satellites for October. Authorization is separate from deployment and continuous global service.
Xona August3 2026 announces FCC permission for production constellation broadcasting while scheduling its first six production satellites for October. Authorization is separate from deployment and continuous global service.
LEO-based stronger navigation signals; Cryptographic signal and range authentication; Hybrid operation with existing GNSS receivers; Canadian receiver, service-operations and Arctic research work
True North Map derives this first-conversation question from the documented Xona Space Systems Canada capability, current evidence and the decision gap that remains.
Xona Space Systems Canada's public evidence establishes its current role and offering, but it does not answer every access, configuration, eligibility, maturity or buyer question needed for a first business-development conversation.
Pulsar is a low-Earth-orbit positioning, navigation and timing architecture designed to provide stronger, authenticated signals and resilient high-precision navigation alongside existing GNSS services.
CSA records explicitly connect Xona's LEO PNT work to ionospheric sensing and navigation degradation in the Canadian Arctic, while current company material describes polar coverage goals; full service availability remains prospective.
Furuno August4 2026 confirms June reception of Pulsar-0 in Japan and July reception during GNSS spoofing using the same antenna. It calls this foundational receiver evaluation ahead of practical service, not full positioning availability or immunity to all interference.
Supports: Pulsar resilient low-Earth-orbit PNT · core features
Furuno August4 2026 confirms June reception of Pulsar-0 in Japan and July reception during GNSS spoofing using the same antenna. It calls this foundational receiver evaluation ahead of practical service, not full positioning availability or immunity to all interference.
Furuno August4 2026 confirms June reception of Pulsar-0 in Japan and July reception during GNSS spoofing using the same antenna. It calls this foundational receiver evaluation ahead of practical service, not full positioning availability or immunity to all interference.
Furuno August4 2026 confirms June reception of Pulsar-0 in Japan and July reception during GNSS spoofing using the same antenna. It calls this foundational receiver evaluation ahead of practical service, not full positioning availability or immunity to all interference.
Xona describes a planned258-satellite Pulsar architecture, software-defined payloads and a distributed-clock approach. Inter-satellite crosslinks are described as a future constellation-scale enhancement; full independent timing should not be inferred from current demonstrator operation.
Xona describes a planned258-satellite Pulsar architecture, software-defined payloads and a distributed-clock approach. Inter-satellite crosslinks are described as a future constellation-scale enhancement; full independent timing should not be inferred from current demonstrator operation.
Xona describes a planned258-satellite Pulsar architecture, software-defined payloads and a distributed-clock approach. Inter-satellite crosslinks are described as a future constellation-scale enhancement; full independent timing should not be inferred from current demonstrator operation.
Xona describes a planned258-satellite Pulsar architecture, software-defined payloads and a distributed-clock approach. Inter-satellite crosslinks are described as a future constellation-scale enhancement; full independent timing should not be inferred from current demonstrator operation.
Xona describes a planned258-satellite Pulsar architecture, software-defined payloads and a distributed-clock approach. Inter-satellite crosslinks are described as a future constellation-scale enhancement; full independent timing should not be inferred from current demonstrator operation.
Xona describes a planned258-satellite Pulsar architecture, software-defined payloads and a distributed-clock approach. Inter-satellite crosslinks are described as a future constellation-scale enhancement; full independent timing should not be inferred from current demonstrator operation.
Xona describes a planned258-satellite Pulsar architecture, software-defined payloads and a distributed-clock approach. Inter-satellite crosslinks are described as a future constellation-scale enhancement; full independent timing should not be inferred from current demonstrator operation.
Xona describes a planned258-satellite Pulsar architecture, software-defined payloads and a distributed-clock approach. Inter-satellite crosslinks are described as a future constellation-scale enhancement; full independent timing should not be inferred from current demonstrator operation.
Xona describes a planned258-satellite Pulsar architecture, software-defined payloads and a distributed-clock approach. Inter-satellite crosslinks are described as a future constellation-scale enhancement; full independent timing should not be inferred from current demonstrator operation.
Supports: Pulsar resilient low-Earth-orbit PNT · capability type
Xona describes a planned258-satellite Pulsar architecture, software-defined payloads and a distributed-clock approach. Inter-satellite crosslinks are described as a future constellation-scale enhancement; full independent timing should not be inferred from current demonstrator operation.
Xona describes a planned258-satellite Pulsar architecture, software-defined payloads and a distributed-clock approach. Inter-satellite crosslinks are described as a future constellation-scale enhancement; full independent timing should not be inferred from current demonstrator operation.
Xona describes a planned258-satellite Pulsar architecture, software-defined payloads and a distributed-clock approach. Inter-satellite crosslinks are described as a future constellation-scale enhancement; full independent timing should not be inferred from current demonstrator operation.
Supports: Pulsar resilient low-Earth-orbit PNT · name
Xona describes a planned258-satellite Pulsar architecture, software-defined payloads and a distributed-clock approach. Inter-satellite crosslinks are described as a future constellation-scale enhancement; full independent timing should not be inferred from current demonstrator operation.
Supports: Pulsar resilient low-Earth-orbit PNT · core features
Xona describes a planned258-satellite Pulsar architecture, software-defined payloads and a distributed-clock approach. Inter-satellite crosslinks are described as a future constellation-scale enhancement; full independent timing should not be inferred from current demonstrator operation.
Supports: Pulsar resilient low-Earth-orbit PNT · core features
Xona describes a planned258-satellite Pulsar architecture, software-defined payloads and a distributed-clock approach. Inter-satellite crosslinks are described as a future constellation-scale enhancement; full independent timing should not be inferred from current demonstrator operation.
Xona describes a planned258-satellite Pulsar architecture, software-defined payloads and a distributed-clock approach. Inter-satellite crosslinks are described as a future constellation-scale enhancement; full independent timing should not be inferred from current demonstrator operation.
Xona describes a planned258-satellite Pulsar architecture, software-defined payloads and a distributed-clock approach. Inter-satellite crosslinks are described as a future constellation-scale enhancement; full independent timing should not be inferred from current demonstrator operation.
Xona describes a planned258-satellite Pulsar architecture, software-defined payloads and a distributed-clock approach. Inter-satellite crosslinks are described as a future constellation-scale enhancement; full independent timing should not be inferred from current demonstrator operation.
Xona describes a planned258-satellite Pulsar architecture, software-defined payloads and a distributed-clock approach. Inter-satellite crosslinks are described as a future constellation-scale enhancement; full independent timing should not be inferred from current demonstrator operation.
Xona describes a planned258-satellite Pulsar architecture, software-defined payloads and a distributed-clock approach. Inter-satellite crosslinks are described as a future constellation-scale enhancement; full independent timing should not be inferred from current demonstrator operation.
Xona describes a planned258-satellite Pulsar architecture, software-defined payloads and a distributed-clock approach. Inter-satellite crosslinks are described as a future constellation-scale enhancement; full independent timing should not be inferred from current demonstrator operation.
Xona describes a planned258-satellite Pulsar architecture, software-defined payloads and a distributed-clock approach. Inter-satellite crosslinks are described as a future constellation-scale enhancement; full independent timing should not be inferred from current demonstrator operation.
Supports: Pulsar resilient low-Earth-orbit PNT → Autonomous Patrol and Monitoring
Xona describes a planned258-satellite Pulsar architecture, software-defined payloads and a distributed-clock approach. Inter-satellite crosslinks are described as a future constellation-scale enhancement; full independent timing should not be inferred from current demonstrator operation.
Supports: Pulsar resilient low-Earth-orbit PNT → Autonomous Patrol and Monitoring
Xona describes a planned258-satellite Pulsar architecture, software-defined payloads and a distributed-clock approach. Inter-satellite crosslinks are described as a future constellation-scale enhancement; full independent timing should not be inferred from current demonstrator operation.
Supports: Pulsar resilient low-Earth-orbit PNT → Autonomous Patrol and Monitoring
Xona describes a planned258-satellite Pulsar architecture, software-defined payloads and a distributed-clock approach. Inter-satellite crosslinks are described as a future constellation-scale enhancement; full independent timing should not be inferred from current demonstrator operation.
Supports: Pulsar resilient low-Earth-orbit PNT → Autonomous Patrol and Monitoring
Xona describes a planned258-satellite Pulsar architecture, software-defined payloads and a distributed-clock approach. Inter-satellite crosslinks are described as a future constellation-scale enhancement; full independent timing should not be inferred from current demonstrator operation.
Supports: Pulsar resilient low-Earth-orbit PNT · core features
Xona May27 2026 announces NRC collaboration on Canadian timing-infrastructure resilience. This is research collaboration and domestic timing integration, not public acceptance of a fully deployed national timing service.
Furuno September10 announces a coauthored Xona ION paper presenting numerical simulations of faster convergence under dynamic LEO visibility, potentially one-fifth to one-tenth GNSS convergence time. This is a simulation result and announced presentation, not a measured all-environment operational guarantee.
Furuno September10 announces a coauthored Xona ION paper presenting numerical simulations of faster convergence under dynamic LEO visibility, potentially one-fifth to one-tenth GNSS convergence time. This is a simulation result and announced presentation, not a measured all-environment operational guarantee.
Xona June23 2026 first-year Pulsar-0 review reports partner field tests and350+ transmission passes across four continents. Demonstrator reception and positioning results remain distinct from continuous global service of the planned constellation.
Xona June23 2026 first-year Pulsar-0 review reports partner field tests and350+ transmission passes across four continents. Demonstrator reception and positioning results remain distinct from continuous global service of the planned constellation.
Continue exploring
Follow the strongest connections
Continue through related organizations, reviewed mission and Defence need connections, programme pathways, and explicitly linked intelligence. Similarity results describe shared areas of work, not partnerships or endorsements.
Organizations
Profiles that provide the strongest reviewed or discovery-led continuation.
