Canadian Strategic Missions Corporation is a Waterloo-based Canadian space and defence technology company developing dual-use systems for strategic power, remote and Arctic operations, space resources, water purification and advanced sensing.
Operating context
CSMC is developing a reactor portfolio alongside the engineering and industrial systems needed to support it. ERA backs an unfuelled prototype and future research-reactor design package with University of Alberta; NGen-supported work with Samuel Automation and Stern Laboratories develops a manufacturing cell. Those earlier records retain LEUNR terminology and do not allocate deliverables among POLAR-1, ORCA-1 and JAY-1. The CEO describes POLAR-1 as transportable but stationary in operation, and the proposed 2028 milestone as a criticality experiment with safety validation. Site authorization, fuel arrangements and a power-producing demonstration remain decisive questions for the deployment schedule. CSMC Labs adds separate sensing and resource-processing work: TIMS publishes a simulated EIT/ultrasound fusion example, QASM reports model development and planned laboratory-to-field testing, and LunaPure and HYDRO+ remain award-backed lunar development systems. These evidence stages call for different validation conversations.
Canadian footprint
FedDev describes CSMC as Waterloo-based. Corporations Canada records a Toronto registered office, while ERA and the University of Alberta place an active LEUNR development project in Edmonton. These are different operating, legal and project locations; public evidence does not establish a manufacturing plant, licensed reactor facility or fueled demonstration site at any of them.
Waterloo, Ontario is the published city-level context for Canadian Strategic Missions Corporation. It does not imply a street address or exact facility location.
CSMC offers development and integration conversations across northern power, sensing and lunar resources. POLAR-1, ORCA-1 and JAY-1 separate terrestrial, research and space uses; prototype, manufacturing and connectivity partners provide concrete diligence paths. The sensing portfolio is earlier: TIMS shows simulated data fusion and QASM reports models and planned tests. LunaPure’s competition result and HYDRO+ prototyping support further engineering discussions. Reactor engagement should resolve the site/operator, fuel, power-demonstration schedule and legacy work allocation; sensing and processing engagement should start with measured results and test conditions.
Interpretation of the public record. Not qualification, endorsement or evidence of buyer interest.
Development-stage lunar in-situ resource-processing system
Read technical summary
HYDRO+ is CSMC’s lunar resource-processing concept using integrated gas reduction to release oxygen bound in metal oxides. It aims to handle different ores and lunar geological regions, with oxygen and water among the intended useful products. CSA awarded C$499,647 for prototyping in 2023, and CSMC includes HYDRO+ in its 2026 lunar architecture work; public descriptions do not quantify demonstrated yield, throughput or process energy.
Evidence of maturity
CSA announced $499,647 for HYDRO+ prototyping on December 13, 2023. CSMC still identifies HYDRO+ in its June 2026 lunar resource study; neither source establishes completed qualification or a deployed processing system.
Core features
Gas-reduction processing of oxygen-bearing metal oxides
Adaptation to varied lunar ores and geological regions
CSMC is developing JAY-1 for sustained power on the Moon and future space infrastructure. The concept targets compact integration with lunar landers and autonomous operation for habitats, scientific facilities and resource activities. These are intended functions rather than flight-qualified performance.
Evidence of maturity
Introduced in September 2026 as a space reactor concept. No flight qualification, completed deployment or platform-specific TRL is established by the inspected launch materials.
Core features
Intended compact integration with lunar landers
Autonomous operation and long-duration surface power are design goals
LEUNR is CSMC's former microreactor concept, retired in the September 9, 2026 launch of POLAR-1, ORCA-1 and JAY-1. It remains relevant as the named subject of earlier development awards; historical project specifications and readiness targets should not be transferred automatically to the new platforms.
Evidence of maturity
CSA agreement 25STDPX13 sought to move LEUNR from TRL 4/5 conceptual design toward TRL 6 detailed design by August 31, 2027. CSMC retired the concept in September 2026; this target is historical, not demonstrated readiness of a successor.
Commercial availability
Retired concept; the new platform launch does not establish delivery of a commercial LEUNR reactor.
Core features
Representative unfuelled analogue testing under CSA agreement 25STDPX13
LunaPure is CSMC’s lunar water-purification development system. The company describes using solar energy and the lunar vacuum to extract and purify water from ice while removing dust and other contaminants, with low maintenance as a design objective. CSA selected LunaPure as the April 2026 Aqualunar grand-prize winner and awarded C$400,000 for further development; the award does not report lunar operation or quantified potable-water performance.
Evidence of maturity
CSA announced the Aqualunar grand-prize selection on April 15, 2026 and $400,000 for continued LunaPure development after a three-stage competition. This establishes an evaluated development concept, not a lunar mission or commercial qualification.
Core features
Solar energy and lunar vacuum are part of the proposed purification process
Removal of dust and other contaminants from lunar ice-derived water
Self-contained, low-maintenance operation is a design objective
Winner of CSA’s three-stage Aqualunar Challenge
Recorded applications
Lunar life support
Water purification for sustained lunar exploration
CSMC describes ORCA-1 as a research reactor platform for technology testing, practical training and nuclear workforce development. Its intended users include researchers, students, regulators, operators and industry partners. The announcement establishes a development offering, not an operating training facility.
Evidence of maturity
Introduced in September 2026. The inspected company materials provide intended functions but no demonstrated readiness level or commissioning milestone.
Core features
Intended hands-on nuclear training and operational experience
Research and testing platform for nuclear technology development
CSMC is developing POLAR-1 to supply continuous electricity and heat to northern, Indigenous, industrial and defence sites. Its proposed transportability and remote monitoring address the logistics of off-grid power. Exact electrical and thermal ratings, transport mass and service intervals are not specified in the launch materials.
Evidence of maturity
Company target: first criticality by 2028. The CEO describes a criticality experiment and safety-system validation rather than a completed power plant; no demonstrated TRL is assigned.
Commercial availability
Company target for fleet deployments beginning in 2030; this is not an operating fleet or a delivery commitment.
Core features
Megawatt-scale power concept combining electricity and useful heat
Designed for military-aircraft transport, including the C-17
Remote monitoring and long service intervals are design goals
QASM is a quantum-gravimetry research system for subsurface resource characterization, with prospective terrestrial and orbital applications. CSMC describes cold-atom interferometry, while its published patent uses gravity inversion to infer subsurface density distributions. Public evidence includes model-development work and a company-reported Luxembourg development contract; the scheduled laboratory-to-field sequence does not establish a demonstrated orbital sensor.
Evidence of maturity
Ontario Water Consortium reported validated performance models and prototype design parameters in September 2023. CSMC’s November 24, 2025 Luxembourg announcement scheduled laboratory demonstrations for 2026, then field validation and a possible space demonstration. Its May 2026 update still described the laboratory milestone as planned; measured sensor performance was not disclosed.
Core features
Cold-atom interferometry is the proposed gravity-sensing mechanism
Model-based gravity inversion for subsurface density reconstruction
Patent architecture considers complementary clock and other sensor data
Progression from laboratory and field work toward a possible space demonstration
TIMS is a portable imaging research concept for geotechnical surveying, field medicine and manufacturing inspection. CSMC’s published patent describes combining electrical impedance tomography from surface electrodes with ultrasound data and computational reconstruction. Its illustrated fusion result uses simulated data; neither the patent nor the NRC validation grant establishes clinical or field qualification.
Evidence of maturity
NRC IRAP agreement 994139 provided C$75,000 for concept-validation work during August 2022–June 2023. Published patent WO2025073059A1 (April 2025), Figure 6, explicitly combines simulated ultrasound and simulated EIT data; it does not report a clinical trial or field-performance qualification.
Core features
Electrical impedance tomography using surface electrodes and injected current
Ultrasound measurements provide complementary spatial information
Computational fusion of electrical and ultrasound data
Portable, low-power operation is an intended design objective
Recorded applications
Critical-mineral identification
Lunar and terrestrial geotechnical surveying
Field medical tomography research
Public record
Recent activity
Sep 14, 2026
CSMC introduced POLAR-1, ORCA-1 and JAY-1 on September 9, 2026, retiring LEUNR and separating terrestrial power, research/training and lunar power. POLAR-1’s 2028 criticality and 2030 fleet targets remain development goals. On September 14, SpaceQ reported a US$178 million CSMC Micro-Modular Reactor Platform capital-cost figure in the Canada Investment Summit prospectus; this is an investment proposition, not a disclosed completed raise.
POLAR-1 is a development platform with a company target for fleet deployments beginning in 2030. The 2028 criticality milestone is described by the CEO as an experiment and safety-system validation, rather than a finished power plant.
Financing and disclosed activity
Public records separately identify a C$1 million CSA LEUNR project, a C$1 million National Defence IDEaS project, C$169,000 for DIANA Mission Control, C$1.2 million within a C$3 million NGen manufacturing project, C$5 million within a C$10.4 million ERA project, and C$4.5 million within a C$10,095,066 FedDev project. These figures have different program and project bases and are not summed as financing or revenue.
Ownership and entity scope
Corporations Canada lists CSMC as Active, incorporated November 25, 2020 and renamed from Canadian Space Mining Corporation effective December 15, 2025. Daniel Sax is the sole listed individual with significant control, indirectly holding more than 75% of shares. Inspected October 5, 2026: 2024/2025 annual filings are Filed and 2026 is Not due.
Reported employee range
33 employees reported by Vanguard in September 2026
Programs and deployments
FedDev Ontario Microreactor Scale-Up Project
Contribution recipient · 2026 Waterloo and Brant regional investment
Sponsor or operator: Canadian Strategic Missions Corporation
Funded·Jul 23, 2026
Organization role. FedDev Ontario announced a C$4.5 million contribution toward CSMC’s C$10,095,066 micro-nuclear development project for Arctic defence and remote energy. These are contribution and total-project figures, not revenue or a reactor procurement.
Program. A $10.095 million CSMC project supported by a $4.5 million FedDev Ontario contribution to advance micro-nuclear power technology for Arctic defence and remote-energy applications.
Historical enabling-power assessment for the retired LEUNR concept: LEUNR's stated Arctic and remote-power posture could enable sustained operation of northern sensing and communications sites, although the reactor itself is an enabling power system rather than an awareness sensor. This is not a current deployment claim or a match assigned to POLAR-1.
Which site, operator, fuel arrangements and CNSC milestones connect POLAR-1’s proposed 2028 criticality experiment to a power-producing demonstration and first fleet deployment?
The CEO distinguishes criticality and safety validation from a finished power plant. The regulator’s optional vendor design review does not itself authorize a site or operator.
02
What are each reactor’s electrical and thermal outputs, transport and site requirements, and allocated deliverables from the earlier LEUNR-funded projects?
The launch separates POLAR-1, ORCA-1 and JAY-1, while ERA still names LEUNR for an unfuelled prototype and future research-reactor design package. Legacy project specifications do not establish successor configurations.
03
What measured QASM sensor results and TIMS imaging tests now follow the published modelling and simulation work, and under what conditions?
QASM’s 2026 laboratory milestone was still planned in the May update. TIMS patent Figure 6 uses simulated ultrasound and EIT data, leaving measured field and medical performance as separate validation steps.
04
What water-purity, yield, throughput and energy results have LunaPure and HYDRO+ achieved under representative vacuum, temperature and regolith conditions?
CSA confirms LunaPure’s competition award and HYDRO+ prototype funding. Public descriptions explain the proposed processes but do not quantify an operating lunar process envelope.
Original sources 48 linked records
These records support the organization, its owned capabilities and their reviewed connections. A source count is not a count of independent confirmations.
Daniel Sax told Vanguard that the demonstration means a criticality experiment and confirmation of safety-system behaviour, not a finished power plant; he distinguishes transportable reactors from mobile operation.
Daniel Sax told Vanguard that the demonstration means a criticality experiment and confirmation of safety-system behaviour, not a finished power plant; he distinguishes transportable reactors from mobile operation.
CSMC announces a Luxembourg Space Agency contract for QASM, named Quantum Atomic Subsurface Mapper, for space-based quantum gravimetry and subsurface resource sensing. The release schedules laboratory demonstrations for 2026, followed by field validation and a possible later space demonstration. It reports a development contract, not completed tests or an operating orbital sensor.
Public sources cited · Facts and assessments kept separate · Human review
Study contractor · 2026 lunar architecture studies
Sponsor or operator: Canadian Strategic Missions Corporation
Contracted·Jun 9, 2026
Organization role. CSMC is a study contractor for lunar regolith management and surface power. CSA announced four contracts totalling C$2 million across three companies, lasting ten months with a possible six-month extension; CSMC separately reports that its own two awards are C$500,000 each.
Program. CSMC participates in ten-month Canadian Space Agency architecture studies assessing lunar regolith management and surface power; four contracts totalling $2 million were awarded across three Canadian companies.
Automated Manufacturing for Nuclear Micro-Reactors
Project lead · Advanced Manufacturing Technology Program
Sponsor or operator: NGen
Funded·Apr 20, 2026
Organization role. NGen identifies CSMC as lead and Samuel Automation and Stern Laboratories as partners; the project develops manufacturing capability and does not establish an operating serial-production line.
Program. A C$3 million project with a C$1.2 million public contribution to develop an in-factory LEUNR manufacturing cell, led by CSMC with Samuel Automation and Stern Laboratories.
Sponsor or operator: Canadian Strategic Missions Corporation
Awarded·Apr 15, 2026
Organization role. CSMC's LunaPure system won the Canadian Aqualunar Challenge Stage 3 grand prize and $400,000 in continued-development funding for sustainable lunar water purification.
Program. CSMC's LunaPure system won the Canadian Aqualunar Challenge Stage 3 grand prize and $400,000 in continued-development funding for sustainable lunar water purification.
Sponsor or operator: Canadian Strategic Missions Corporation
Contracted·Nov 24, 2025
Organization role. A company-reported Luxembourg Space Agency contract to develop the QASM space-based quantum-gravimetry system for subsurface critical-mineral and water detection.
Program. A company-reported Luxembourg Space Agency contract to develop the QASM space-based quantum-gravimetry system for subsurface critical-mineral and water detection.
Sponsor or operator: Canadian Strategic Missions Corporation
Awarded·Dec 13, 2023
Organization role. A $499,647 Canadian Space Agency project to prototype CSMC's integrated gas-reduction HYDRO+ system for processing lunar ores and minerals.
Program. A $499,647 Canadian Space Agency project to prototype CSMC's integrated gas-reduction HYDRO+ system for processing lunar ores and minerals.
Contribution recipient · STDP AO 9 Advanced Technologies
Sponsor or operator: Canadian Strategic Missions Corporation
Funded
Organization role. CSA agreement 25STDPX13 provides C$1 million from 2025-07-31 through 2027-08-31 for representative unfuelled analogue testing intended to move LEUNR from TRL 4/5 conceptual design toward TRL 6 detailed design.
Program. A $1 million Canadian Space Agency contribution to test a non-fuel LEUNR prototype and move Canada's first space micro modular reactor closer to mission readiness.
Project lead · Industrial Transformation Challenge 2025
Sponsor or operator: Emissions Reduction Alberta
Funded
Organization role. ERA identifies CSMC as the technology developer and University of Alberta as project partner for an unfuelled LEUNR prototype and future research-reactor design package.
Program. An active C$10.4 million Edmonton project with C$5 million of ERA funding for CSMC and the University of Alberta to commission an unfuelled prototype and prepare requirements and design for a future fueled research reactor.
Sponsor or operator: Canadian Strategic Missions Corporation
Funded
Organization role. A $1 million National Defence IDEaS project running from April 2025 through September 2027 to advance LEUNR within the NORAD Modernization Science and Technology Contest.
Program. A $1 million National Defence IDEaS project running from April 2025 through September 2027 to advance LEUNR within the NORAD Modernization Science and Technology Contest.
Cohort company · 2026 Critical Infrastructure and Logistics
Sponsor or operator: NATO Defence Innovation Accelerator for the North Atlantic
Selected
Organization role. NATO DIANA lists CSMC for remote monitoring of micro modular reactors; National Defence separately records C$169,000 for Mission Control under RD-029. Selection and funding do not establish deployment.
Program. A 2026 Critical Infrastructure and Logistics accelerator project for Mission Control remote monitoring of micro modular reactors, supported by Canadian project RD-029.
Contribution recipient · IRAP Contributions to Firms
Sponsor or operator: Canadian Strategic Missions Corporation
Funded
Organization role. A $75,000 NRC IRAP project to validate the Time and Impedance Multi-Sensor imaging concept for resource exploration, medical tomography and manufacturing inspection.
Program. A $75,000 NRC IRAP project to validate the Time and Impedance Multi-Sensor imaging concept for resource exploration, medical tomography and manufacturing inspection.
National Defence and Defence Research and Development Canada
National Defence supports CSMC's LEUNR work through a $1 million IDEaS grant under the NORAD Modernization Science and Technology Contest.
Economic Development Funder
Federal Economic Development Agency for Southern Ontario
FedDev Ontario is contributing $4.5 million toward CSMC's $10.095 million project to advance micro-nuclear technology for Arctic defence and remote energy.
Funding And Contracting Authority
Canadian Space Agency
CSA sources document CSMC participation across LEUNR development, the Aqualunar Challenge, HYDRO+ prototyping and 2026 lunar architecture studies.
Strategic collaboration memorandum of understanding
Telesat and CSMC signed an MOU to explore Lightspeed-supported monitoring, operation and sustainment of CSMC reactor systems in remote and Arctic settings. Potential pilots and commercial or operational arrangements remain subject to definitive agreements.
Technology Contracting Authority
Luxembourg Space Agency
CSMC reports that the Luxembourg Space Agency awarded a contract for development of the QASM quantum subsurface-mapping system.
Technology-licensing term sheet
Canadian Nuclear Laboratories
OECD-NEA reports that CSMC signed a November 2024 licensing term sheet with Canadian Nuclear Laboratories to use SLOWPOKE-2 as LEUNR's technical basis. A term sheet is not a completed technology licence, CNSC approval, site authorization or operating reactor, and no CNL confirmation was located.
Wholly Owned Research Division
CSMC Labs
CSMC's official website describes CSMC Labs as its wholly owned R&D division for commercializing deep technology in quantum, natural resources and adjacent fields.
Wholly Owned Subsidiary
CSMC Nuclear
CSMC's official website describes CSMC Nuclear as its wholly owned subsidiary developing portable nuclear reactors for remote environments, Canadian defence, Indigenous communities and space exploration.
NRC IRAP agreement 1034602 records CAD 324,000 for an unfuelled LEUNR instrumentation-and-controls prototype, covering August 1, 2025 to April 30, 2026 and amended March 4, 2026. Its February 2026 prototype and 2029 fueled-demonstrator milestones were objectives, not reported outcomes. Allocation to POLAR-1, ORCA-1 or JAY-1 is not disclosed.
(opens in a new tab)
Mission area · Reviewed connectionEvidence strength: Moderate
Historical enabling-power assessment for the retired LEUNR concept: If successfully demonstrated and deployed, LEUNR could provide persistent power for remote sensors, communications and edge-computing infrastructure where conventional logistics are constrained. This is not a current deployment claim or a match assigned to POLAR-1.
LEUNR Micro-Nuclear Reactor may help teams working on Dual-use northern infrastructure and partnerships by contributing to Arctic and northern operations, energy and power resilience, and protection and survivability.
LunaPure Lunar Water Purification may help teams working on Arctic operational reach and sustainment by contributing to Arctic and northern operations, energy and power resilience, and logistics and sustainment.
POLAR-1 Terrestrial Microreactor may help teams working on Arctic operational reach and sustainment by contributing to Arctic and northern operations, energy and power resilience, and logistics and sustainment.
POLAR-1 Terrestrial Microreactor may help teams working on Sovereign defence capability areas by contributing to detection and situational awareness, logistics and sustainment, and aerospace operations.
POLAR-1 Terrestrial Microreactor may help teams working on Dual-use northern infrastructure and partnerships by contributing to Arctic and northern operations, energy and power resilience, and advanced materials and manufacturing.
A mature orbital quantum-gravimetry system could contribute a distinct geophysical layer for remote northern terrain and resource characterization; this is a derived potential because QASM remains development-stage.
Reviewed connections indicate possible relevance based on public evidence. They do not indicate procurement direction, eligibility, endorsement or customer interest.
Supports: Profile · operating context
Daniel Sax told Vanguard that the demonstration means a criticality experiment and confirmation of safety-system behaviour, not a finished power plant; he distinguishes transportable reactors from mobile operation.
Supports: Profile · commercial status
Daniel Sax told Vanguard that the demonstration means a criticality experiment and confirmation of safety-system behaviour, not a finished power plant; he distinguishes transportable reactors from mobile operation.
Daniel Sax told Vanguard that the demonstration means a criticality experiment and confirmation of safety-system behaviour, not a finished power plant; he distinguishes transportable reactors from mobile operation.
Daniel Sax told Vanguard that POLAR-1 is transportable but stationary once installed, and described its demonstration as a criticality experiment checking safety systems rather than a finished power plant. Vanguard reports 33 employees and retirement of the earlier LEUNR concept.
Daniel Sax told Vanguard that POLAR-1 is transportable but stationary once installed, and described its demonstration as a criticality experiment checking safety systems rather than a finished power plant. Vanguard reports 33 employees and retirement of the earlier LEUNR concept.
Supports: Profile · current activity
Daniel Sax told Vanguard that POLAR-1 is transportable but stationary once installed, and described its demonstration as a criticality experiment checking safety systems rather than a finished power plant. Vanguard reports 33 employees and retirement of the earlier LEUNR concept.
Daniel Sax told Vanguard that POLAR-1 is transportable but stationary once installed, and described its demonstration as a criticality experiment checking safety systems rather than a finished power plant. Vanguard reports 33 employees and retirement of the earlier LEUNR concept.
Supports: Profile · employee range
Vanguard reports CSMC grew from 12 to 33 employees in 2026 and has roughly 20 open roles; these are reported company figures, not an audited workforce count.
Supports: Profile · operating context
Daniel Sax told Vanguard that POLAR-1 is transportable but stationary once installed, and described its demonstration as a criticality experiment checking safety systems rather than a finished power plant. Vanguard reports 33 employees and retirement of the earlier LEUNR concept.
Supports: Profile · executive relevance summary
Source location: executiveRelevanceSummary
Daniel Sax told Vanguard that the demonstration means a criticality experiment and confirmation of safety-system behaviour, not a finished power plant; he distinguishes transportable reactors from mobile operation.
Daniel Sax told Vanguard that POLAR-1 is transportable but stationary once installed, and described its demonstration as a criticality experiment checking safety systems rather than a finished power plant. Vanguard reports 33 employees and retirement of the earlier LEUNR concept.
Daniel Sax told Vanguard that the demonstration means a criticality experiment and confirmation of safety-system behaviour, not a finished power plant; he distinguishes transportable reactors from mobile operation.
Daniel Sax told Vanguard that the demonstration means a criticality experiment and confirmation of safety-system behaviour, not a finished power plant; he distinguishes transportable reactors from mobile operation.
Supports: POLAR-1 Terrestrial Microreactor → Arctic operational reach and sustainment
Daniel Sax told Vanguard that the demonstration means a criticality experiment and confirmation of safety-system behaviour, not a finished power plant; he distinguishes transportable reactors from mobile operation.
Supports: POLAR-1 Terrestrial Microreactor → Sovereign defence capability areas
Daniel Sax told Vanguard that the demonstration means a criticality experiment and confirmation of safety-system behaviour, not a finished power plant; he distinguishes transportable reactors from mobile operation.
Supports: POLAR-1 Terrestrial Microreactor → Dual-use northern infrastructure and partnerships
Daniel Sax told Vanguard that the demonstration means a criticality experiment and confirmation of safety-system behaviour, not a finished power plant; he distinguishes transportable reactors from mobile operation.
CSMC describes QASM as a space-based quantum-gravimetry development using cold-atom interferometry for subsurface resource characterization. Its November 24, 2025 release schedules early laboratory demonstrations in 2026, then field testing and validation, followed by a possible space demonstration.
CSMC describes QASM as a space-based quantum-gravimetry development using cold-atom interferometry for subsurface resource characterization. Its November 24, 2025 release schedules early laboratory demonstrations in 2026, then field testing and validation, followed by a possible space demonstration.
Supports: QASM Quantum Atomic Subsurface Mapper · capability type
CSMC describes QASM as a space-based quantum-gravimetry development using cold-atom interferometry for subsurface resource characterization. Its November 24, 2025 release schedules early laboratory demonstrations in 2026, then field testing and validation, followed by a possible space demonstration.
CSMC describes QASM as a space-based quantum-gravimetry development using cold-atom interferometry for subsurface resource characterization. Its November 24, 2025 release schedules early laboratory demonstrations in 2026, then field testing and validation, followed by a possible space demonstration.
Supports: QASM Quantum Atomic Subsurface Mapper · core features
CSMC describes QASM as a space-based quantum-gravimetry development using cold-atom interferometry for subsurface resource characterization. Its November 24, 2025 release schedules early laboratory demonstrations in 2026, then field testing and validation, followed by a possible space demonstration.
CSMC describes QASM as a space-based quantum-gravimetry development using cold-atom interferometry for subsurface resource characterization. Its November 24, 2025 release schedules early laboratory demonstrations in 2026, then field testing and validation, followed by a possible space demonstration.
CSMC's attributed announcement describes QASM as a space-based quantum-gravimetry sensor for detecting and characterizing subsurface critical minerals and water from Earth or planetary orbit.
Supports: QASM Quantum Atomic Subsurface Mapper · name
CSMC describes QASM as a space-based quantum-gravimetry development using cold-atom interferometry for subsurface resource characterization. Its November 24, 2025 release schedules early laboratory demonstrations in 2026, then field testing and validation, followed by a possible space demonstration.
CSMC describes QASM as a space-based quantum-gravimetry development using cold-atom interferometry for subsurface resource characterization. Its November 24, 2025 release schedules early laboratory demonstrations in 2026, then field testing and validation, followed by a possible space demonstration.
CSMC describes QASM as a space-based quantum-gravimetry development using cold-atom interferometry for subsurface resource characterization. Its November 24, 2025 release schedules early laboratory demonstrations in 2026, then field testing and validation, followed by a possible space demonstration.
Supports: QASM Quantum Atomic Subsurface Mapper · core features
CSMC describes QASM as a space-based quantum-gravimetry development using cold-atom interferometry for subsurface resource characterization. Its November 24, 2025 release schedules early laboratory demonstrations in 2026, then field testing and validation, followed by a possible space demonstration.
CSMC describes QASM as a space-based quantum-gravimetry development using cold-atom interferometry for subsurface resource characterization. Its November 24, 2025 release schedules early laboratory demonstrations in 2026, then field testing and validation, followed by a possible space demonstration.
CSMC describes QASM as a space-based quantum-gravimetry development using cold-atom interferometry for subsurface resource characterization. Its November 24, 2025 release schedules early laboratory demonstrations in 2026, then field testing and validation, followed by a possible space demonstration.
CSMC describes QASM as a space-based quantum-gravimetry development using cold-atom interferometry for subsurface resource characterization. Its November 24, 2025 release schedules early laboratory demonstrations in 2026, then field testing and validation, followed by a possible space demonstration.
CSMC describes QASM as a space-based quantum-gravimetry development using cold-atom interferometry for subsurface resource characterization. Its November 24, 2025 release schedules early laboratory demonstrations in 2026, then field testing and validation, followed by a possible space demonstration.
CSMC describes QASM as a space-based quantum-gravimetry development using cold-atom interferometry for subsurface resource characterization. Its November 24, 2025 release schedules early laboratory demonstrations in 2026, then field testing and validation, followed by a possible space demonstration.
CSMC describes QASM as a space-based quantum-gravimetry development using cold-atom interferometry for subsurface resource characterization. Its November 24, 2025 release schedules early laboratory demonstrations in 2026, then field testing and validation, followed by a possible space demonstration.
CSMC describes QASM as a space-based quantum-gravimetry development using cold-atom interferometry for subsurface resource characterization. Its November 24, 2025 release schedules early laboratory demonstrations in 2026, then field testing and validation, followed by a possible space demonstration.
CSMC describes QASM as a space-based quantum-gravimetry development using cold-atom interferometry for subsurface resource characterization. Its November 24, 2025 release schedules early laboratory demonstrations in 2026, then field testing and validation, followed by a possible space demonstration.
CSMC describes QASM as a space-based quantum-gravimetry development using cold-atom interferometry for subsurface resource characterization. Its November 24, 2025 release schedules early laboratory demonstrations in 2026, then field testing and validation, followed by a possible space demonstration.
CSMC describes QASM as a space-based quantum-gravimetry development using cold-atom interferometry for subsurface resource characterization. Its November 24, 2025 release schedules early laboratory demonstrations in 2026, then field testing and validation, followed by a possible space demonstration.
CSMC describes QASM as a space-based quantum-gravimetry development using cold-atom interferometry for subsurface resource characterization. Its November 24, 2025 release schedules early laboratory demonstrations in 2026, then field testing and validation, followed by a possible space demonstration.
CSMC describes QASM as a space-based quantum-gravimetry development using cold-atom interferometry for subsurface resource characterization. Its November 24, 2025 release schedules early laboratory demonstrations in 2026, then field testing and validation, followed by a possible space demonstration.
Supports: Luxembourg QASM Quantum-Sensing Contract · canonical program
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: Profile · profileData.portfolioScope
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: Profile · dual use posture
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: JAY-1 Space Reactor · maturity
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: JAY-1 Space Reactor · name
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: JAY-1 Space Reactor · capability type
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: JAY-1 Space Reactor · core features
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: JAY-1 Space Reactor · technical tags
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: JAY-1 Space Reactor · technical tags
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: JAY-1 Space Reactor · defence applications
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: JAY-1 Space Reactor · technicaldomainslugs
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: JAY-1 Space Reactor · slug
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: JAY-1 Space Reactor · technology readiness level
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: JAY-1 Space Reactor · core features
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: JAY-1 Space Reactor · defence applications
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: JAY-1 Space Reactor · commercial availability
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: JAY-1 Space Reactor · summary
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: LEUNR Micro-Nuclear Reactor → Edge Data Processing
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: LEUNR Micro-Nuclear Reactor → Edge Data Processing
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: LEUNR Micro-Nuclear Reactor → Edge Data Processing
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: LEUNR Micro-Nuclear Reactor → Edge Data Processing
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: ORCA-1 Research Reactor · defence applications
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: ORCA-1 Research Reactor · technical tags
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: ORCA-1 Research Reactor · defence applications
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: ORCA-1 Research Reactor · technical tags
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: ORCA-1 Research Reactor · technicaldomainslugs
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: ORCA-1 Research Reactor · core features
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: ORCA-1 Research Reactor · core features
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: POLAR-1 Terrestrial Microreactor · capability type
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: POLAR-1 Terrestrial Microreactor · slug
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: POLAR-1 Terrestrial Microreactor · name
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: POLAR-1 Terrestrial Microreactor → Arctic operational reach and sustainment
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: POLAR-1 Terrestrial Microreactor → Arctic operational reach and sustainment
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: POLAR-1 Terrestrial Microreactor → Arctic operational reach and sustainment
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: POLAR-1 Terrestrial Microreactor → Arctic operational reach and sustainment
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: POLAR-1 Terrestrial Microreactor → Arctic operational reach and sustainment
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: POLAR-1 Terrestrial Microreactor → Arctic operational reach and sustainment
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: POLAR-1 Terrestrial Microreactor → Arctic operational reach and sustainment
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: POLAR-1 Terrestrial Microreactor → Arctic operational reach and sustainment
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: POLAR-1 Terrestrial Microreactor → Arctic operational reach and sustainment
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: POLAR-1 Terrestrial Microreactor → Arctic operational reach and sustainment
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: POLAR-1 Terrestrial Microreactor → Sovereign defence capability areas
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: POLAR-1 Terrestrial Microreactor → Sovereign defence capability areas
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: POLAR-1 Terrestrial Microreactor → Sovereign defence capability areas
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: POLAR-1 Terrestrial Microreactor → Sovereign defence capability areas
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: POLAR-1 Terrestrial Microreactor → Sovereign defence capability areas
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: POLAR-1 Terrestrial Microreactor → Sovereign defence capability areas
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: POLAR-1 Terrestrial Microreactor → Sovereign defence capability areas
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: POLAR-1 Terrestrial Microreactor → Sovereign defence capability areas
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: POLAR-1 Terrestrial Microreactor → Sovereign defence capability areas
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: POLAR-1 Terrestrial Microreactor → Sovereign defence capability areas
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: POLAR-1 Terrestrial Microreactor → Dual-use northern infrastructure and partnerships
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: POLAR-1 Terrestrial Microreactor → Dual-use northern infrastructure and partnerships
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: POLAR-1 Terrestrial Microreactor → Dual-use northern infrastructure and partnerships
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: POLAR-1 Terrestrial Microreactor → Dual-use northern infrastructure and partnerships
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: POLAR-1 Terrestrial Microreactor → Dual-use northern infrastructure and partnerships
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: POLAR-1 Terrestrial Microreactor → Dual-use northern infrastructure and partnerships
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: POLAR-1 Terrestrial Microreactor → Dual-use northern infrastructure and partnerships
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: POLAR-1 Terrestrial Microreactor → Dual-use northern infrastructure and partnerships
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: POLAR-1 Terrestrial Microreactor → Dual-use northern infrastructure and partnerships
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
Supports: POLAR-1 Terrestrial Microreactor → Dual-use northern infrastructure and partnerships
CSMC assigns POLAR-1 to terrestrial megawatt-scale electricity and heat with military-aircraft transportability, remote monitoring and long service intervals; ORCA-1 to research, testing and workforce training; JAY-1 to autonomous long-duration lunar power with intended lander integration. These are design descriptions, not demonstrated capabilities.
On September 9, 2026 CSMC introduced POLAR-1, JAY-1 and ORCA-1 and explicitly retired its former LEUNR concept. POLAR-1 targets criticality by 2028 and fleet deployments beginning in 2030; the platforms address terrestrial, research and lunar applications.
On September 9, 2026 CSMC introduced POLAR-1, JAY-1 and ORCA-1 and explicitly retired its former LEUNR concept. POLAR-1 targets criticality by 2028 and fleet deployments beginning in 2030; the platforms address terrestrial, research and lunar applications.
On September 9, 2026 CSMC introduced POLAR-1, JAY-1 and ORCA-1 and explicitly retired its former LEUNR concept. POLAR-1 targets criticality by 2028 and fleet deployments beginning in 2030; the platforms address terrestrial, research and lunar applications.
The September 9, 2026 company announcement introduces POLAR-1 for terrestrial electricity and heat, ORCA-1 for research and workforce training, and JAY-1 for lunar and space infrastructure. POLAR-1 targets criticality in 2028 and fleet deployments from 2030; JAY-1 targets lander integration and autonomy. These are development intentions.
CSMC targets POLAR-1 first criticality by 2028 and envisages fleet deployment from 2030; the launch reports development targets, not achieved criticality.
The September 9, 2026 company announcement introduces POLAR-1 for terrestrial electricity and heat, ORCA-1 for research and workforce training, and JAY-1 for lunar and space infrastructure. POLAR-1 targets criticality in 2028 and fleet deployments from 2030; JAY-1 targets lander integration and autonomy. These are development intentions.
On September 9, 2026 CSMC introduced POLAR-1, JAY-1 and ORCA-1 and explicitly retired its former LEUNR concept. POLAR-1 targets criticality by 2028 and fleet deployments beginning in 2030; the platforms address terrestrial, research and lunar applications.
Supports: Profile · current activity
On September 9, 2026 CSMC introduced POLAR-1, JAY-1 and ORCA-1 and explicitly retired its former LEUNR concept. POLAR-1 targets criticality by 2028 and fleet deployments beginning in 2030; the platforms address terrestrial, research and lunar applications.
Supports: Profile · executive relevance summary
Source location: executiveRelevanceSummary
The September 9, 2026 company announcement introduces POLAR-1 for terrestrial electricity and heat, ORCA-1 for research and workforce training, and JAY-1 for lunar and space infrastructure. POLAR-1 targets criticality in 2028 and fleet deployments from 2030; JAY-1 targets lander integration and autonomy. These are development intentions.
Supports: Profile · operating context
The September 9, 2026 company announcement introduces POLAR-1 for terrestrial electricity and heat, ORCA-1 for research and workforce training, and JAY-1 for lunar and space infrastructure. POLAR-1 targets criticality in 2028 and fleet deployments from 2030; JAY-1 targets lander integration and autonomy. These are development intentions.
Supports: Profile · current activity
The September 9, 2026 company announcement introduces POLAR-1 for terrestrial electricity and heat, ORCA-1 for research and workforce training, and JAY-1 for lunar and space infrastructure. POLAR-1 targets criticality in 2028 and fleet deployments from 2030; JAY-1 targets lander integration and autonomy. These are development intentions.
The September 9, 2026 company announcement introduces POLAR-1 for terrestrial electricity and heat, ORCA-1 for research and workforce training, and JAY-1 for lunar and space infrastructure. POLAR-1 targets criticality in 2028 and fleet deployments from 2030; JAY-1 targets lander integration and autonomy. These are development intentions.
CSMC targets POLAR-1 first criticality by 2028 and envisages fleet deployment from 2030; the launch reports development targets, not achieved criticality.
Supports: Profile · defence posture
CSMC describes POLAR-1 as a transportable megawatt-scale microreactor for electricity and heat in Arctic communities, defence installations and remote industrial sites, designed for military airlift including C-17.
On September 9, 2026 CSMC introduced POLAR-1, JAY-1 and ORCA-1 and explicitly retired its former LEUNR concept. POLAR-1 targets criticality by 2028 and fleet deployments beginning in 2030; the platforms address terrestrial, research and lunar applications.
The September 9, 2026 company announcement introduces POLAR-1 for terrestrial electricity and heat, ORCA-1 for research and workforce training, and JAY-1 for lunar and space infrastructure. POLAR-1 targets criticality in 2028 and fleet deployments from 2030; JAY-1 targets lander integration and autonomy. These are development intentions.
CSMC targets POLAR-1 first criticality by 2028 and envisages fleet deployment from 2030; the launch reports development targets, not achieved criticality.
Supports: Profile · commercial status
CSMC targets POLAR-1 first criticality by 2028 and envisages fleet deployment from 2030; the launch reports development targets, not achieved criticality.
CSMC targets POLAR-1 first criticality by 2028 and envisages fleet deployment from 2030; the launch reports development targets, not achieved criticality.
Supports: LEUNR Micro-Nuclear Reactor · summary
On September 9, 2026 CSMC introduced POLAR-1, JAY-1 and ORCA-1 and explicitly retired its former LEUNR concept. POLAR-1 targets criticality by 2028 and fleet deployments beginning in 2030; the platforms address terrestrial, research and lunar applications.
Supports: LEUNR Micro-Nuclear Reactor · maturity
On September 9, 2026 CSMC introduced POLAR-1, JAY-1 and ORCA-1 and explicitly retired its former LEUNR concept. POLAR-1 targets criticality by 2028 and fleet deployments beginning in 2030; the platforms address terrestrial, research and lunar applications.
On September 9, 2026 CSMC introduced POLAR-1, JAY-1 and ORCA-1 and explicitly retired its former LEUNR concept. POLAR-1 targets criticality by 2028 and fleet deployments beginning in 2030; the platforms address terrestrial, research and lunar applications.
Supports: LEUNR Micro-Nuclear Reactor · capability type
On September 9, 2026 CSMC introduced POLAR-1, JAY-1 and ORCA-1 and explicitly retired its former LEUNR concept. POLAR-1 targets criticality by 2028 and fleet deployments beginning in 2030; the platforms address terrestrial, research and lunar applications.
On September 9, 2026 CSMC introduced POLAR-1, JAY-1 and ORCA-1 and explicitly retired its former LEUNR concept. POLAR-1 targets criticality by 2028 and fleet deployments beginning in 2030; the platforms address terrestrial, research and lunar applications.
Supports: LEUNR Micro-Nuclear Reactor · name
On September 9, 2026 CSMC introduced POLAR-1, JAY-1 and ORCA-1 and explicitly retired its former LEUNR concept. POLAR-1 targets criticality by 2028 and fleet deployments beginning in 2030; the platforms address terrestrial, research and lunar applications.
On September 9, 2026 CSMC introduced POLAR-1, JAY-1 and ORCA-1 and explicitly retired its former LEUNR concept. POLAR-1 targets criticality by 2028 and fleet deployments beginning in 2030; the platforms address terrestrial, research and lunar applications.
On September 9, 2026 CSMC introduced POLAR-1, JAY-1 and ORCA-1 and explicitly retired its former LEUNR concept. POLAR-1 targets criticality by 2028 and fleet deployments beginning in 2030; the platforms address terrestrial, research and lunar applications.
On September 9, 2026 CSMC introduced POLAR-1, JAY-1 and ORCA-1 and explicitly retired its former LEUNR concept. POLAR-1 targets criticality by 2028 and fleet deployments beginning in 2030; the platforms address terrestrial, research and lunar applications.
On September 9, 2026 CSMC introduced POLAR-1, JAY-1 and ORCA-1 and explicitly retired its former LEUNR concept. POLAR-1 targets criticality by 2028 and fleet deployments beginning in 2030; the platforms address terrestrial, research and lunar applications.
Supports: LEUNR Micro-Nuclear Reactor → Edge Data Processing
On September 9, 2026 CSMC introduced POLAR-1, JAY-1 and ORCA-1 and explicitly retired its former LEUNR concept. POLAR-1 targets criticality by 2028 and fleet deployments beginning in 2030; the platforms address terrestrial, research and lunar applications.
Supports: LEUNR Micro-Nuclear Reactor → Edge Data Processing
On September 9, 2026 CSMC introduced POLAR-1, JAY-1 and ORCA-1 and explicitly retired its former LEUNR concept. POLAR-1 targets criticality by 2028 and fleet deployments beginning in 2030; the platforms address terrestrial, research and lunar applications.
Supports: LEUNR Micro-Nuclear Reactor → Edge Data Processing
On September 9, 2026 CSMC introduced POLAR-1, JAY-1 and ORCA-1 and explicitly retired its former LEUNR concept. POLAR-1 targets criticality by 2028 and fleet deployments beginning in 2030; the platforms address terrestrial, research and lunar applications.
Supports: LEUNR Micro-Nuclear Reactor → Edge Data Processing
On September 9, 2026 CSMC introduced POLAR-1, JAY-1 and ORCA-1 and explicitly retired its former LEUNR concept. POLAR-1 targets criticality by 2028 and fleet deployments beginning in 2030; the platforms address terrestrial, research and lunar applications.
Supports: ORCA-1 Research Reactor · capability type
CSMC describes ORCA-1 as a research reactor platform for technology validation, operator training, workforce development and hands-on research access.
Supports: ORCA-1 Research Reactor · summary
CSMC describes ORCA-1 as a research reactor platform for technology validation, operator training, workforce development and hands-on research access.
Supports: ORCA-1 Research Reactor · technology readiness level
CSMC describes ORCA-1 as a research reactor platform for technology validation, operator training, workforce development and hands-on research access.
Supports: ORCA-1 Research Reactor · maturity
CSMC describes ORCA-1 as a research reactor platform for technology validation, operator training, workforce development and hands-on research access.
Supports: ORCA-1 Research Reactor · name
CSMC describes ORCA-1 as a research reactor platform for technology validation, operator training, workforce development and hands-on research access.
Supports: ORCA-1 Research Reactor · commercial availability
CSMC describes ORCA-1 as a research reactor platform for technology validation, operator training, workforce development and hands-on research access.
Supports: ORCA-1 Research Reactor · slug
CSMC describes ORCA-1 as a research reactor platform for technology validation, operator training, workforce development and hands-on research access.
Supports: POLAR-1 Terrestrial Microreactor · core features
CSMC describes POLAR-1 as a transportable megawatt-scale microreactor for electricity and heat in Arctic communities, defence installations and remote industrial sites, designed for military airlift including C-17.
CSMC targets POLAR-1 first criticality by 2028 and envisages fleet deployment from 2030; the launch reports development targets, not achieved criticality.
Supports: POLAR-1 Terrestrial Microreactor · core features
CSMC describes POLAR-1 as a transportable megawatt-scale microreactor for electricity and heat in Arctic communities, defence installations and remote industrial sites, designed for military airlift including C-17.
Supports: POLAR-1 Terrestrial Microreactor · core features
CSMC describes POLAR-1 as a transportable megawatt-scale microreactor for electricity and heat in Arctic communities, defence installations and remote industrial sites, designed for military airlift including C-17.
CSMC targets POLAR-1 first criticality by 2028 and envisages fleet deployment from 2030; the launch reports development targets, not achieved criticality.
Supports: POLAR-1 Terrestrial Microreactor → Arctic operational reach and sustainment
CSMC describes POLAR-1 as a transportable megawatt-scale microreactor for electricity and heat in Arctic communities, defence installations and remote industrial sites, designed for military airlift including C-17.
Supports: POLAR-1 Terrestrial Microreactor → Arctic operational reach and sustainment
CSMC describes POLAR-1 as a transportable megawatt-scale microreactor for electricity and heat in Arctic communities, defence installations and remote industrial sites, designed for military airlift including C-17.
Supports: POLAR-1 Terrestrial Microreactor → Arctic operational reach and sustainment
CSMC targets POLAR-1 first criticality by 2028 and envisages fleet deployment from 2030; the launch reports development targets, not achieved criticality.
Supports: POLAR-1 Terrestrial Microreactor → Arctic operational reach and sustainment
CSMC describes POLAR-1 as a transportable megawatt-scale microreactor for electricity and heat in Arctic communities, defence installations and remote industrial sites, designed for military airlift including C-17.
Supports: POLAR-1 Terrestrial Microreactor → Arctic operational reach and sustainment
CSMC targets POLAR-1 first criticality by 2028 and envisages fleet deployment from 2030; the launch reports development targets, not achieved criticality.
Supports: POLAR-1 Terrestrial Microreactor → Sovereign defence capability areas
CSMC targets POLAR-1 first criticality by 2028 and envisages fleet deployment from 2030; the launch reports development targets, not achieved criticality.
Supports: POLAR-1 Terrestrial Microreactor → Sovereign defence capability areas
CSMC describes POLAR-1 as a transportable megawatt-scale microreactor for electricity and heat in Arctic communities, defence installations and remote industrial sites, designed for military airlift including C-17.
Supports: POLAR-1 Terrestrial Microreactor → Sovereign defence capability areas
CSMC describes POLAR-1 as a transportable megawatt-scale microreactor for electricity and heat in Arctic communities, defence installations and remote industrial sites, designed for military airlift including C-17.
Supports: POLAR-1 Terrestrial Microreactor → Sovereign defence capability areas
CSMC targets POLAR-1 first criticality by 2028 and envisages fleet deployment from 2030; the launch reports development targets, not achieved criticality.
Supports: POLAR-1 Terrestrial Microreactor → Sovereign defence capability areas
CSMC describes POLAR-1 as a transportable megawatt-scale microreactor for electricity and heat in Arctic communities, defence installations and remote industrial sites, designed for military airlift including C-17.
Supports: POLAR-1 Terrestrial Microreactor → Dual-use northern infrastructure and partnerships
CSMC targets POLAR-1 first criticality by 2028 and envisages fleet deployment from 2030; the launch reports development targets, not achieved criticality.
Supports: POLAR-1 Terrestrial Microreactor → Dual-use northern infrastructure and partnerships
CSMC describes POLAR-1 as a transportable megawatt-scale microreactor for electricity and heat in Arctic communities, defence installations and remote industrial sites, designed for military airlift including C-17.
Supports: POLAR-1 Terrestrial Microreactor → Dual-use northern infrastructure and partnerships
CSMC describes POLAR-1 as a transportable megawatt-scale microreactor for electricity and heat in Arctic communities, defence installations and remote industrial sites, designed for military airlift including C-17.
Supports: POLAR-1 Terrestrial Microreactor → Dual-use northern infrastructure and partnerships
CSMC targets POLAR-1 first criticality by 2028 and envisages fleet deployment from 2030; the launch reports development targets, not achieved criticality.
Supports: POLAR-1 Terrestrial Microreactor → Dual-use northern infrastructure and partnerships
CSMC describes POLAR-1 as a transportable megawatt-scale microreactor for electricity and heat in Arctic communities, defence installations and remote industrial sites, designed for military airlift including C-17.
CSMC announces a Luxembourg Space Agency contract for QASM, named Quantum Atomic Subsurface Mapper, for space-based quantum gravimetry and subsurface resource sensing. The release schedules laboratory demonstrations for 2026, followed by field validation and a possible later space demonstration. It reports a development contract, not completed tests or an operating orbital sensor.
CSMC announces a Luxembourg Space Agency contract for QASM, named Quantum Atomic Subsurface Mapper, for space-based quantum gravimetry and subsurface resource sensing. The release schedules laboratory demonstrations for 2026, followed by field validation and a possible later space demonstration. It reports a development contract, not completed tests or an operating orbital sensor.
CSMC announces a Luxembourg Space Agency contract for QASM, named Quantum Atomic Subsurface Mapper, for space-based quantum gravimetry and subsurface resource sensing. The release schedules laboratory demonstrations for 2026, followed by field validation and a possible later space demonstration. It reports a development contract, not completed tests or an operating orbital sensor.
CSMC announces a Luxembourg Space Agency contract for QASM, named Quantum Atomic Subsurface Mapper, for space-based quantum gravimetry and subsurface resource sensing. The release schedules laboratory demonstrations for 2026, followed by field validation and a possible later space demonstration. It reports a development contract, not completed tests or an operating orbital sensor.
CSMC announces a Luxembourg Space Agency contract for QASM, named Quantum Atomic Subsurface Mapper, for space-based quantum gravimetry and subsurface resource sensing. The release schedules laboratory demonstrations for 2026, followed by field validation and a possible later space demonstration. It reports a development contract, not completed tests or an operating orbital sensor.
CSMC announces a Luxembourg Space Agency contract for QASM, named Quantum Atomic Subsurface Mapper, for space-based quantum gravimetry and subsurface resource sensing. The release schedules laboratory demonstrations for 2026, followed by field validation and a possible later space demonstration. It reports a development contract, not completed tests or an operating orbital sensor.
Supports: QASM Quantum Atomic Subsurface Mapper · name
CSMC announces a Luxembourg Space Agency contract for QASM, named Quantum Atomic Subsurface Mapper, for space-based quantum gravimetry and subsurface resource sensing. The release schedules laboratory demonstrations for 2026, followed by field validation and a possible later space demonstration. It reports a development contract, not completed tests or an operating orbital sensor.
CSMC announces a Luxembourg Space Agency contract for QASM, named Quantum Atomic Subsurface Mapper, for space-based quantum gravimetry and subsurface resource sensing. The release schedules laboratory demonstrations for 2026, followed by field validation and a possible later space demonstration. It reports a development contract, not completed tests or an operating orbital sensor.
CSMC announces a Luxembourg Space Agency contract for QASM, named Quantum Atomic Subsurface Mapper, for space-based quantum gravimetry and subsurface resource sensing. The release schedules laboratory demonstrations for 2026, followed by field validation and a possible later space demonstration. It reports a development contract, not completed tests or an operating orbital sensor.
Supports: QASM Quantum Atomic Subsurface Mapper · core features
CSMC announces a Luxembourg Space Agency contract for QASM, named Quantum Atomic Subsurface Mapper, for space-based quantum gravimetry and subsurface resource sensing. The release schedules laboratory demonstrations for 2026, followed by field validation and a possible later space demonstration. It reports a development contract, not completed tests or an operating orbital sensor.
CSMC announces a Luxembourg Space Agency contract for QASM, named Quantum Atomic Subsurface Mapper, for space-based quantum gravimetry and subsurface resource sensing. The release schedules laboratory demonstrations for 2026, followed by field validation and a possible later space demonstration. It reports a development contract, not completed tests or an operating orbital sensor.
CSMC announces a Luxembourg Space Agency contract for QASM, named Quantum Atomic Subsurface Mapper, for space-based quantum gravimetry and subsurface resource sensing. The release schedules laboratory demonstrations for 2026, followed by field validation and a possible later space demonstration. It reports a development contract, not completed tests or an operating orbital sensor.
Supports: QASM Quantum Atomic Subsurface Mapper · capability type
CSMC announces a Luxembourg Space Agency contract for QASM, named Quantum Atomic Subsurface Mapper, for space-based quantum gravimetry and subsurface resource sensing. The release schedules laboratory demonstrations for 2026, followed by field validation and a possible later space demonstration. It reports a development contract, not completed tests or an operating orbital sensor.
CSMC announces a Luxembourg Space Agency contract for QASM, named Quantum Atomic Subsurface Mapper, for space-based quantum gravimetry and subsurface resource sensing. The release schedules laboratory demonstrations for 2026, followed by field validation and a possible later space demonstration. It reports a development contract, not completed tests or an operating orbital sensor.
CSMC announces a Luxembourg Space Agency contract for QASM, named Quantum Atomic Subsurface Mapper, for space-based quantum gravimetry and subsurface resource sensing. The release schedules laboratory demonstrations for 2026, followed by field validation and a possible later space demonstration. It reports a development contract, not completed tests or an operating orbital sensor.
Supports: QASM Quantum Atomic Subsurface Mapper · core features
CSMC announces a Luxembourg Space Agency contract for QASM, named Quantum Atomic Subsurface Mapper, for space-based quantum gravimetry and subsurface resource sensing. The release schedules laboratory demonstrations for 2026, followed by field validation and a possible later space demonstration. It reports a development contract, not completed tests or an operating orbital sensor.
CSMC announces a Luxembourg Space Agency contract for QASM, named Quantum Atomic Subsurface Mapper, for space-based quantum gravimetry and subsurface resource sensing. The release schedules laboratory demonstrations for 2026, followed by field validation and a possible later space demonstration. It reports a development contract, not completed tests or an operating orbital sensor.
Supports: QASM Quantum Atomic Subsurface Mapper · core features
CSMC announces a Luxembourg Space Agency contract for QASM, named Quantum Atomic Subsurface Mapper, for space-based quantum gravimetry and subsurface resource sensing. The release schedules laboratory demonstrations for 2026, followed by field validation and a possible later space demonstration. It reports a development contract, not completed tests or an operating orbital sensor.
CSMC announces a Luxembourg Space Agency contract for QASM, named Quantum Atomic Subsurface Mapper, for space-based quantum gravimetry and subsurface resource sensing. The release schedules laboratory demonstrations for 2026, followed by field validation and a possible later space demonstration. It reports a development contract, not completed tests or an operating orbital sensor.
CSMC announces a Luxembourg Space Agency contract for QASM, named Quantum Atomic Subsurface Mapper, for space-based quantum gravimetry and subsurface resource sensing. The release schedules laboratory demonstrations for 2026, followed by field validation and a possible later space demonstration. It reports a development contract, not completed tests or an operating orbital sensor.
Supports: QASM Quantum Atomic Subsurface Mapper · core features
CSMC announces a Luxembourg Space Agency contract for QASM, named Quantum Atomic Subsurface Mapper, for space-based quantum gravimetry and subsurface resource sensing. The release schedules laboratory demonstrations for 2026, followed by field validation and a possible later space demonstration. It reports a development contract, not completed tests or an operating orbital sensor.
CSMC announces a Luxembourg Space Agency contract for QASM, named Quantum Atomic Subsurface Mapper, for space-based quantum gravimetry and subsurface resource sensing. The release schedules laboratory demonstrations for 2026, followed by field validation and a possible later space demonstration. It reports a development contract, not completed tests or an operating orbital sensor.
CSMC announces a Luxembourg Space Agency contract for QASM, named Quantum Atomic Subsurface Mapper, for space-based quantum gravimetry and subsurface resource sensing. The release schedules laboratory demonstrations for 2026, followed by field validation and a possible later space demonstration. It reports a development contract, not completed tests or an operating orbital sensor.
CSMC announces a Luxembourg Space Agency contract for QASM, named Quantum Atomic Subsurface Mapper, for space-based quantum gravimetry and subsurface resource sensing. The release schedules laboratory demonstrations for 2026, followed by field validation and a possible later space demonstration. It reports a development contract, not completed tests or an operating orbital sensor.
CSMC announces a Luxembourg Space Agency contract for QASM, named Quantum Atomic Subsurface Mapper, for space-based quantum gravimetry and subsurface resource sensing. The release schedules laboratory demonstrations for 2026, followed by field validation and a possible later space demonstration. It reports a development contract, not completed tests or an operating orbital sensor.
CSMC announces a Luxembourg Space Agency contract for QASM, named Quantum Atomic Subsurface Mapper, for space-based quantum gravimetry and subsurface resource sensing. The release schedules laboratory demonstrations for 2026, followed by field validation and a possible later space demonstration. It reports a development contract, not completed tests or an operating orbital sensor.
CSMC announces a Luxembourg Space Agency contract for QASM, named Quantum Atomic Subsurface Mapper, for space-based quantum gravimetry and subsurface resource sensing. The release schedules laboratory demonstrations for 2026, followed by field validation and a possible later space demonstration. It reports a development contract, not completed tests or an operating orbital sensor.
CSMC announces a Luxembourg Space Agency contract for QASM, named Quantum Atomic Subsurface Mapper, for space-based quantum gravimetry and subsurface resource sensing. The release schedules laboratory demonstrations for 2026, followed by field validation and a possible later space demonstration. It reports a development contract, not completed tests or an operating orbital sensor.
CSMC announces a Luxembourg Space Agency contract for QASM, named Quantum Atomic Subsurface Mapper, for space-based quantum gravimetry and subsurface resource sensing. The release schedules laboratory demonstrations for 2026, followed by field validation and a possible later space demonstration. It reports a development contract, not completed tests or an operating orbital sensor.
CNSC states that vendor design review is optional, is not a licence application and does not certify a design. Its published current and completed tables do not name CSMC or POLAR-1; this does not establish whether unpublished engagement exists.
CNSC states that vendor design review is optional, is not a licence application and does not certify a design. Its published current and completed tables do not name CSMC or POLAR-1; this does not establish whether unpublished engagement exists.
CNSC states that pre-licensing vendor design review is optional, is not a licence application and does not certify a reactor design or bind future licensing decisions. A company’s absence from its vendor-review list therefore cannot establish whether a separate site or operator authorization exists.
Derived decision context: The OECD-NEA assessment and current CNSC listings do not establish a public vendor design review, licence application, approved site or facility pathway for CSMC or LEUNR.
CNSC states that vendor design review is optional, is not a licence application and does not certify a design. Its published current and completed tables do not name CSMC or POLAR-1; this does not establish whether unpublished engagement exists.
CNSC states that vendor design review is optional, is not a licence application and does not certify a design. Its published current and completed tables do not name CSMC or POLAR-1; this does not establish whether unpublished engagement exists.
After three completed competition stages, CSA selected CSMC for the Aqualunar grand prize and C$400,000 for continued LunaPure development. CSA describes a self-contained, sustainable, low-maintenance lunar-water purification system; the award does not establish mission qualification.
After three completed competition stages, CSA selected CSMC for the Aqualunar grand prize and C$400,000 for continued LunaPure development. CSA describes a self-contained, sustainable, low-maintenance lunar-water purification system; the award does not establish mission qualification.
Supports: Profile · executive relevance summary
Source location: executiveRelevanceSummary
After three completed competition stages, CSA selected CSMC for the Aqualunar grand prize and C$400,000 for continued LunaPure development. CSA describes a self-contained, sustainable, low-maintenance lunar-water purification system; the award does not establish mission qualification.
After three completed competition stages, CSA selected CSMC for the Aqualunar grand prize and C$400,000 for continued LunaPure development. CSA describes a self-contained, sustainable, low-maintenance lunar-water purification system; the award does not establish mission qualification.
After three completed competition stages, CSA selected CSMC for the Aqualunar grand prize and C$400,000 for continued LunaPure development. CSA describes a self-contained, sustainable, low-maintenance lunar-water purification system; the award does not establish mission qualification.
Supports: Profile · operating context
After three completed competition stages, CSA selected CSMC for the Aqualunar grand prize and C$400,000 for continued LunaPure development. CSA describes a self-contained, sustainable, low-maintenance lunar-water purification system; the award does not establish mission qualification.
Supports: LunaPure Lunar Water Purification · defence applications
After three completed competition stages, CSA selected CSMC for the Aqualunar grand prize and C$400,000 for continued LunaPure development. CSA describes a self-contained, sustainable, low-maintenance lunar-water purification system; the award does not establish mission qualification.
Supports: LunaPure Lunar Water Purification · defence applications
After three completed competition stages, CSA selected CSMC for the Aqualunar grand prize and C$400,000 for continued LunaPure development. CSA describes a self-contained, sustainable, low-maintenance lunar-water purification system; the award does not establish mission qualification.
Supports: LunaPure Lunar Water Purification · maturity
After three completed competition stages, CSA selected CSMC for the Aqualunar grand prize and C$400,000 for continued LunaPure development. CSA describes a self-contained, sustainable, low-maintenance lunar-water purification system; the award does not establish mission qualification.
Supports: LunaPure Lunar Water Purification · core features
After three completed competition stages, CSA selected CSMC for the Aqualunar grand prize and C$400,000 for continued LunaPure development. CSA describes a self-contained, sustainable, low-maintenance lunar-water purification system; the award does not establish mission qualification.
Supports: LunaPure Lunar Water Purification · commercial availability
After three completed competition stages, CSA selected CSMC for the Aqualunar grand prize and C$400,000 for continued LunaPure development. CSA describes a self-contained, sustainable, low-maintenance lunar-water purification system; the award does not establish mission qualification.
Supports: LunaPure Lunar Water Purification · capability type
After three completed competition stages, CSA selected CSMC for the Aqualunar grand prize and C$400,000 for continued LunaPure development. CSA describes a self-contained, sustainable, low-maintenance lunar-water purification system; the award does not establish mission qualification.
Supports: LunaPure Lunar Water Purification · technology readiness level
After three completed competition stages, CSA selected CSMC for the Aqualunar grand prize and C$400,000 for continued LunaPure development. CSA describes a self-contained, sustainable, low-maintenance lunar-water purification system; the award does not establish mission qualification.
Supports: LunaPure Lunar Water Purification · name
After three completed competition stages, CSA selected CSMC for the Aqualunar grand prize and C$400,000 for continued LunaPure development. CSA describes a self-contained, sustainable, low-maintenance lunar-water purification system; the award does not establish mission qualification.
Supports: LunaPure Lunar Water Purification · summary
After three completed competition stages, CSA selected CSMC for the Aqualunar grand prize and C$400,000 for continued LunaPure development. CSA describes a self-contained, sustainable, low-maintenance lunar-water purification system; the award does not establish mission qualification.
After three completed competition stages, CSA selected CSMC for the Aqualunar grand prize and C$400,000 for continued LunaPure development. CSA describes a self-contained, sustainable, low-maintenance lunar-water purification system; the award does not establish mission qualification.
After three completed competition stages, CSA selected CSMC for the Aqualunar grand prize and C$400,000 for continued LunaPure development. CSA describes a self-contained, sustainable, low-maintenance lunar-water purification system; the award does not establish mission qualification.
After three completed competition stages, CSA selected CSMC for the Aqualunar grand prize and C$400,000 for continued LunaPure development. CSA describes a self-contained, sustainable, low-maintenance lunar-water purification system; the award does not establish mission qualification.
After three completed competition stages, CSA selected CSMC for the Aqualunar grand prize and C$400,000 for continued LunaPure development. CSA describes a self-contained, sustainable, low-maintenance lunar-water purification system; the award does not establish mission qualification.
After three completed competition stages, CSA selected CSMC for the Aqualunar grand prize and C$400,000 for continued LunaPure development. CSA describes a self-contained, sustainable, low-maintenance lunar-water purification system; the award does not establish mission qualification.
After three completed competition stages, CSA selected CSMC for the Aqualunar grand prize and C$400,000 for continued LunaPure development. CSA describes a self-contained, sustainable, low-maintenance lunar-water purification system; the award does not establish mission qualification.
After three completed competition stages, CSA selected CSMC for the Aqualunar grand prize and C$400,000 for continued LunaPure development. CSA describes a self-contained, sustainable, low-maintenance lunar-water purification system; the award does not establish mission qualification.
The CSA announced $499,647 for Canadian Space Mining Corporation to prototype HYDRO+, a lunar resource-processing concept covering diverse ores and geological regions. This is an award to enter prototyping; the announcement does not report completed testing, flight qualification or a deployed production system.
CSA announced C$499,647 for Canadian Space Mining Corporation to prototype HYDRO+, an integrated gas-reduction system for processing lunar ores and minerals across varied ore types and geological regions. This establishes an awarded prototype project, without reporting qualified processing output, throughput or a lunar deployment.
Supports: Profile · operating context
CSA announced C$499,647 for Canadian Space Mining Corporation to prototype HYDRO+, an integrated gas-reduction system for processing lunar ores and minerals across varied ore types and geological regions. This establishes an awarded prototype project, without reporting qualified processing output, throughput or a lunar deployment.
The CSA announced $499,647 for Canadian Space Mining Corporation to prototype HYDRO+, a lunar resource-processing concept covering diverse ores and geological regions. This is an award to enter prototyping; the announcement does not report completed testing, flight qualification or a deployed production system.
Supports: Profile · executive relevance summary
Source location: executiveRelevanceSummary
CSA announced C$499,647 for Canadian Space Mining Corporation to prototype HYDRO+, an integrated gas-reduction system for processing lunar ores and minerals across varied ore types and geological regions. This establishes an awarded prototype project, without reporting qualified processing output, throughput or a lunar deployment.
Supports: Profile · executive relevance summary
Source location: executiveRelevanceSummary
The CSA announced $499,647 for Canadian Space Mining Corporation to prototype HYDRO+, a lunar resource-processing concept covering diverse ores and geological regions. This is an award to enter prototyping; the announcement does not report completed testing, flight qualification or a deployed production system.
The CSA announced $499,647 for Canadian Space Mining Corporation to prototype HYDRO+, a lunar resource-processing concept covering diverse ores and geological regions. This is an award to enter prototyping; the announcement does not report completed testing, flight qualification or a deployed production system.
CSA announced C$499,647 for Canadian Space Mining Corporation to prototype HYDRO+, an integrated gas-reduction system for processing lunar ores and minerals across varied ore types and geological regions. This establishes an awarded prototype project, without reporting qualified processing output, throughput or a lunar deployment.
The CSA announced $499,647 for Canadian Space Mining Corporation to prototype HYDRO+, a lunar resource-processing concept covering diverse ores and geological regions. This is an award to enter prototyping; the announcement does not report completed testing, flight qualification or a deployed production system.
CSA announced C$499,647 for Canadian Space Mining Corporation to prototype HYDRO+, an integrated gas-reduction system for processing lunar ores and minerals across varied ore types and geological regions. This establishes an awarded prototype project, without reporting qualified processing output, throughput or a lunar deployment.
Supports: HYDRO+ Lunar Resource Processing · core features
The CSA announced $499,647 for Canadian Space Mining Corporation to prototype HYDRO+, a lunar resource-processing concept covering diverse ores and geological regions. This is an award to enter prototyping; the announcement does not report completed testing, flight qualification or a deployed production system.
The CSA announced $499,647 for Canadian Space Mining Corporation to prototype HYDRO+, a lunar resource-processing concept covering diverse ores and geological regions. This is an award to enter prototyping; the announcement does not report completed testing, flight qualification or a deployed production system.
The CSA announced $499,647 for Canadian Space Mining Corporation to prototype HYDRO+, a lunar resource-processing concept covering diverse ores and geological regions. This is an award to enter prototyping; the announcement does not report completed testing, flight qualification or a deployed production system.
Supports: HYDRO+ Lunar Resource Processing · core features
The CSA announced $499,647 for Canadian Space Mining Corporation to prototype HYDRO+, a lunar resource-processing concept covering diverse ores and geological regions. This is an award to enter prototyping; the announcement does not report completed testing, flight qualification or a deployed production system.
Supports: HYDRO+ Lunar Resource Processing · capability type
The CSA announced $499,647 for Canadian Space Mining Corporation to prototype HYDRO+, a lunar resource-processing concept covering diverse ores and geological regions. This is an award to enter prototyping; the announcement does not report completed testing, flight qualification or a deployed production system.
Supports: HYDRO+ Lunar Resource Processing · name
CSA announced C$499,647 for Canadian Space Mining Corporation to prototype HYDRO+, an integrated gas-reduction system for processing lunar ores and minerals across varied ore types and geological regions. This establishes an awarded prototype project, without reporting qualified processing output, throughput or a lunar deployment.
Supports: HYDRO+ Lunar Resource Processing · core features
The CSA announced $499,647 for Canadian Space Mining Corporation to prototype HYDRO+, a lunar resource-processing concept covering diverse ores and geological regions. This is an award to enter prototyping; the announcement does not report completed testing, flight qualification or a deployed production system.
The CSA announced $499,647 for Canadian Space Mining Corporation to prototype HYDRO+, a lunar resource-processing concept covering diverse ores and geological regions. This is an award to enter prototyping; the announcement does not report completed testing, flight qualification or a deployed production system.
The CSA announced $499,647 for Canadian Space Mining Corporation to prototype HYDRO+, a lunar resource-processing concept covering diverse ores and geological regions. This is an award to enter prototyping; the announcement does not report completed testing, flight qualification or a deployed production system.
Supports: HYDRO+ Lunar Resource Processing · name
The CSA announced $499,647 for Canadian Space Mining Corporation to prototype HYDRO+, a lunar resource-processing concept covering diverse ores and geological regions. This is an award to enter prototyping; the announcement does not report completed testing, flight qualification or a deployed production system.
The CSA announced $499,647 for Canadian Space Mining Corporation to prototype HYDRO+, a lunar resource-processing concept covering diverse ores and geological regions. This is an award to enter prototyping; the announcement does not report completed testing, flight qualification or a deployed production system.
The CSA announced $499,647 for Canadian Space Mining Corporation to prototype HYDRO+, a lunar resource-processing concept covering diverse ores and geological regions. This is an award to enter prototyping; the announcement does not report completed testing, flight qualification or a deployed production system.
CSA announced C$499,647 for Canadian Space Mining Corporation to prototype HYDRO+, an integrated gas-reduction system for processing lunar ores and minerals across varied ore types and geological regions. This establishes an awarded prototype project, without reporting qualified processing output, throughput or a lunar deployment.
CSA announced C$499,647 for Canadian Space Mining Corporation to prototype HYDRO+, an integrated gas-reduction system for processing lunar ores and minerals across varied ore types and geological regions. This establishes an awarded prototype project, without reporting qualified processing output, throughput or a lunar deployment.
The CSA announced $499,647 for Canadian Space Mining Corporation to prototype HYDRO+, a lunar resource-processing concept covering diverse ores and geological regions. This is an award to enter prototyping; the announcement does not report completed testing, flight qualification or a deployed production system.
The CSA announced $499,647 for Canadian Space Mining Corporation to prototype HYDRO+, a lunar resource-processing concept covering diverse ores and geological regions. This is an award to enter prototyping; the announcement does not report completed testing, flight qualification or a deployed production system.
The CSA announced $499,647 for Canadian Space Mining Corporation to prototype HYDRO+, a lunar resource-processing concept covering diverse ores and geological regions. This is an award to enter prototyping; the announcement does not report completed testing, flight qualification or a deployed production system.
CSA announced C$499,647 for Canadian Space Mining Corporation to prototype HYDRO+, an integrated gas-reduction system for processing lunar ores and minerals across varied ore types and geological regions. This establishes an awarded prototype project, without reporting qualified processing output, throughput or a lunar deployment.
The CSA announced $499,647 for Canadian Space Mining Corporation to prototype HYDRO+, a lunar resource-processing concept covering diverse ores and geological regions. This is an award to enter prototyping; the announcement does not report completed testing, flight qualification or a deployed production system.
CSA announced C$499,647 for Canadian Space Mining Corporation to prototype HYDRO+, an integrated gas-reduction system for processing lunar ores and minerals across varied ore types and geological regions. This establishes an awarded prototype project, without reporting qualified processing output, throughput or a lunar deployment.
Supports: HYDRO+ Lunar Resource Processing · core features
The CSA announced $499,647 for Canadian Space Mining Corporation to prototype HYDRO+, a lunar resource-processing concept covering diverse ores and geological regions. This is an award to enter prototyping; the announcement does not report completed testing, flight qualification or a deployed production system.
The CSA announced $499,647 for Canadian Space Mining Corporation to prototype HYDRO+, a lunar resource-processing concept covering diverse ores and geological regions. This is an award to enter prototyping; the announcement does not report completed testing, flight qualification or a deployed production system.
CSA announced C$499,647 for Canadian Space Mining Corporation to prototype HYDRO+, an integrated gas-reduction system for processing lunar ores and minerals across varied ore types and geological regions. This establishes an awarded prototype project, without reporting qualified processing output, throughput or a lunar deployment.
CSA announced C$499,647 for Canadian Space Mining Corporation to prototype HYDRO+, an integrated gas-reduction system for processing lunar ores and minerals across varied ore types and geological regions. This establishes an awarded prototype project, without reporting qualified processing output, throughput or a lunar deployment.
Supports: HYDRO+ Lunar Resource Processing · core features
CSA announced C$499,647 for Canadian Space Mining Corporation to prototype HYDRO+, an integrated gas-reduction system for processing lunar ores and minerals across varied ore types and geological regions. This establishes an awarded prototype project, without reporting qualified processing output, throughput or a lunar deployment.
Supports: HYDRO+ Lunar Resource Processing · capability type
CSA announced C$499,647 for Canadian Space Mining Corporation to prototype HYDRO+, an integrated gas-reduction system for processing lunar ores and minerals across varied ore types and geological regions. This establishes an awarded prototype project, without reporting qualified processing output, throughput or a lunar deployment.
CSA announced C$499,647 for Canadian Space Mining Corporation to prototype HYDRO+, an integrated gas-reduction system for processing lunar ores and minerals across varied ore types and geological regions. This establishes an awarded prototype project, without reporting qualified processing output, throughput or a lunar deployment.
Supports: HYDRO+ Lunar Resource Processing · core features
CSA announced C$499,647 for Canadian Space Mining Corporation to prototype HYDRO+, an integrated gas-reduction system for processing lunar ores and minerals across varied ore types and geological regions. This establishes an awarded prototype project, without reporting qualified processing output, throughput or a lunar deployment.
The CSA announced $499,647 for Canadian Space Mining Corporation to prototype HYDRO+, a lunar resource-processing concept covering diverse ores and geological regions. This is an award to enter prototyping; the announcement does not report completed testing, flight qualification or a deployed production system.
The Canadian Space Agency describes HYDRO+ as an integrated gas-reduction prototype for processing diverse ore and minerals from different lunar geological regions.
CSA announced C$499,647 for Canadian Space Mining Corporation to prototype HYDRO+, an integrated gas-reduction system for processing lunar ores and minerals across varied ore types and geological regions. This establishes an awarded prototype project, without reporting qualified processing output, throughput or a lunar deployment.
CSA announced C$499,647 for Canadian Space Mining Corporation to prototype HYDRO+, an integrated gas-reduction system for processing lunar ores and minerals across varied ore types and geological regions. This establishes an awarded prototype project, without reporting qualified processing output, throughput or a lunar deployment.
CSA announced C$499,647 for Canadian Space Mining Corporation to prototype HYDRO+, an integrated gas-reduction system for processing lunar ores and minerals across varied ore types and geological regions. This establishes an awarded prototype project, without reporting qualified processing output, throughput or a lunar deployment.
CSA announced C$499,647 for Canadian Space Mining Corporation to prototype HYDRO+, an integrated gas-reduction system for processing lunar ores and minerals across varied ore types and geological regions. This establishes an awarded prototype project, without reporting qualified processing output, throughput or a lunar deployment.
CSA announced C$499,647 for Canadian Space Mining Corporation to prototype HYDRO+, an integrated gas-reduction system for processing lunar ores and minerals across varied ore types and geological regions. This establishes an awarded prototype project, without reporting qualified processing output, throughput or a lunar deployment.
CSA announced C$499,647 for Canadian Space Mining Corporation to prototype HYDRO+, an integrated gas-reduction system for processing lunar ores and minerals across varied ore types and geological regions. This establishes an awarded prototype project, without reporting qualified processing output, throughput or a lunar deployment.
CSA announced C$499,647 for Canadian Space Mining Corporation to prototype HYDRO+, an integrated gas-reduction system for processing lunar ores and minerals across varied ore types and geological regions. This establishes an awarded prototype project, without reporting qualified processing output, throughput or a lunar deployment.
Supports: CSA HYDRO+ Lunar Prototype · canonical program
ERA lists an active Edmonton development project valued at CAD 10.4 million with CAD 5 million funding. CSMC and University of Alberta will commission an unfuelled prototype and prepare a future research-reactor design package; the page does not name ORCA-1.
ERA lists an active Edmonton LEUNR development project with C$10.4 million total value and C$5 million funding. CSMC and University of Alberta plan an unfuelled prototype for stakeholder familiarization and a detailed design package for a future fueled research reactor. The record does not name a successor reactor platform.
Supports: Profile · disclosed financing summary
ERA lists C$5 million of funding within an active C$10.4 million LEUNR project in Edmonton.
Supports: Profile · operating context
ERA lists an active Edmonton development project valued at CAD 10.4 million with CAD 5 million funding. CSMC and University of Alberta will commission an unfuelled prototype and prepare a future research-reactor design package; the page does not name ORCA-1.
ERA lists an active Edmonton development project valued at CAD 10.4 million with CAD 5 million funding. CSMC and University of Alberta will commission an unfuelled prototype and prepare a future research-reactor design package; the page does not name ORCA-1.
ERA lists an active Edmonton development project valued at CAD 10.4 million with CAD 5 million funding. CSMC and University of Alberta will commission an unfuelled prototype and prepare a future research-reactor design package; the page does not name ORCA-1.
ERA lists an active Edmonton development project valued at CAD 10.4 million with CAD 5 million funding. CSMC and University of Alberta will commission an unfuelled prototype and prepare a future research-reactor design package; the page does not name ORCA-1.
Supports: Profile · executive relevance summary
Source location: executiveRelevanceSummary
ERA lists an active Edmonton development project valued at CAD 10.4 million with CAD 5 million funding. CSMC and University of Alberta will commission an unfuelled prototype and prepare a future research-reactor design package; the page does not name ORCA-1.
Supports: Profile · canadian footprint
ERA lists the active LEUNR project location as Edmonton, Alberta.
Supports: Profile · executive relevance summary
Source location: executiveRelevanceSummary
ERA lists an active Edmonton LEUNR development project with C$10.4 million total value and C$5 million funding. CSMC and University of Alberta plan an unfuelled prototype for stakeholder familiarization and a detailed design package for a future fueled research reactor. The record does not name a successor reactor platform.
Supports: Profile · operating context
ERA lists an active Edmonton LEUNR development project with C$10.4 million total value and C$5 million funding. CSMC and University of Alberta plan an unfuelled prototype for stakeholder familiarization and a detailed design package for a future fueled research reactor. The record does not name a successor reactor platform.
Retain test, training and sustainment as a derived domain because ERA describes an unfuelled prototype and stakeholder-familiarization program.
Supports: Emissions Reduction Alberta LEUNR Project · organization participation
The supported lifecycle classification is funded.
Supports: Emissions Reduction Alberta LEUNR Project · organization participation
The public cohort label is Industrial Transformation Challenge 2025.
Supports: Emissions Reduction Alberta LEUNR Project · organization participation
ERA identifies CSMC as the technology developer and University of Alberta as project partner for an unfuelled LEUNR prototype and future research-reactor design package.
Supports: Emissions Reduction Alberta LEUNR Project · organization participation
CSMC's participation is Project lead.
Supports: Emissions Reduction Alberta LEUNR Project · canonical program
https://www.eralberta.ca/projects/details/low-enriched-uranium-nuclear-reactor-leunr/ is the durable program source.
Supports: Emissions Reduction Alberta LEUNR Project · canonical program
Emissions Reduction Alberta LEUNR Project is classified as Emissions-reduction technology development project.
Supports: Emissions Reduction Alberta LEUNR Project · canonical program
An active C$10.4 million Edmonton project with C$5 million of ERA funding for CSMC and the University of Alberta to commission an unfuelled prototype and prepare requirements and design for a future fueled research reactor.
Supports: Emissions Reduction Alberta LEUNR Project · canonical program
Emissions Reduction Alberta LEUNR Project is the public program name.
Supports: Emissions Reduction Alberta LEUNR Project · canonical program
Emissions Reduction Alberta operates the named program.
The Canadian Space Agency selected CSMC as Aqualunar Challenge grand-prize winner after three stages and announced $400,000 to continue LunaPure development. The concept is a self-contained, low-maintenance sustainable lunar-water purification system. The award establishes competitive selection and continuing development, not lunar deployment or commercial availability.
The Canadian Space Agency selected CSMC as Aqualunar Challenge grand-prize winner after three stages and announced $400,000 to continue LunaPure development. The concept is a self-contained, low-maintenance sustainable lunar-water purification system. The award establishes competitive selection and continuing development, not lunar deployment or commercial availability.
Supports: Profile · executive relevance summary
Source location: executiveRelevanceSummary
The Canadian Space Agency selected CSMC as Aqualunar Challenge grand-prize winner after three stages and announced $400,000 to continue LunaPure development. The concept is a self-contained, low-maintenance sustainable lunar-water purification system. The award establishes competitive selection and continuing development, not lunar deployment or commercial availability.
The Canadian Space Agency selected CSMC as Aqualunar Challenge grand-prize winner after three stages and announced $400,000 to continue LunaPure development. The concept is a self-contained, low-maintenance sustainable lunar-water purification system. The award establishes competitive selection and continuing development, not lunar deployment or commercial availability.
The Canadian Space Agency selected CSMC as Aqualunar Challenge grand-prize winner after three stages and announced $400,000 to continue LunaPure development. The concept is a self-contained, low-maintenance sustainable lunar-water purification system. The award establishes competitive selection and continuing development, not lunar deployment or commercial availability.
Supports: LunaPure Lunar Water Purification · technical tags
The Canadian Space Agency selected CSMC as Aqualunar Challenge grand-prize winner after three stages and announced $400,000 to continue LunaPure development. The concept is a self-contained, low-maintenance sustainable lunar-water purification system. The award establishes competitive selection and continuing development, not lunar deployment or commercial availability.
Supports: LunaPure Lunar Water Purification · name
The Canadian Space Agency selected CSMC as Aqualunar Challenge grand-prize winner after three stages and announced $400,000 to continue LunaPure development. The concept is a self-contained, low-maintenance sustainable lunar-water purification system. The award establishes competitive selection and continuing development, not lunar deployment or commercial availability.
Supports: LunaPure Lunar Water Purification · maturity
The Canadian Space Agency selected CSMC as Aqualunar Challenge grand-prize winner after three stages and announced $400,000 to continue LunaPure development. The concept is a self-contained, low-maintenance sustainable lunar-water purification system. The award establishes competitive selection and continuing development, not lunar deployment or commercial availability.
Supports: LunaPure Lunar Water Purification · technical tags
The Canadian Space Agency selected CSMC as Aqualunar Challenge grand-prize winner after three stages and announced $400,000 to continue LunaPure development. The concept is a self-contained, low-maintenance sustainable lunar-water purification system. The award establishes competitive selection and continuing development, not lunar deployment or commercial availability.
Supports: LunaPure Lunar Water Purification · capability type
The Canadian Space Agency selected CSMC as Aqualunar Challenge grand-prize winner after three stages and announced $400,000 to continue LunaPure development. The concept is a self-contained, low-maintenance sustainable lunar-water purification system. The award establishes competitive selection and continuing development, not lunar deployment or commercial availability.
Supports: LunaPure Lunar Water Purification · core features
The Canadian Space Agency selected CSMC as Aqualunar Challenge grand-prize winner after three stages and announced $400,000 to continue LunaPure development. The concept is a self-contained, low-maintenance sustainable lunar-water purification system. The award establishes competitive selection and continuing development, not lunar deployment or commercial availability.
Supports: LunaPure Lunar Water Purification · core features
The Canadian Space Agency selected CSMC as Aqualunar Challenge grand-prize winner after three stages and announced $400,000 to continue LunaPure development. The concept is a self-contained, low-maintenance sustainable lunar-water purification system. The award establishes competitive selection and continuing development, not lunar deployment or commercial availability.
Supports: LunaPure Lunar Water Purification · core features
The Canadian Space Agency selected CSMC as Aqualunar Challenge grand-prize winner after three stages and announced $400,000 to continue LunaPure development. The concept is a self-contained, low-maintenance sustainable lunar-water purification system. The award establishes competitive selection and continuing development, not lunar deployment or commercial availability.
Supports: LunaPure Lunar Water Purification · core features
The Canadian Space Agency selected CSMC as Aqualunar Challenge grand-prize winner after three stages and announced $400,000 to continue LunaPure development. The concept is a self-contained, low-maintenance sustainable lunar-water purification system. The award establishes competitive selection and continuing development, not lunar deployment or commercial availability.
Supports: LunaPure Lunar Water Purification · technical tags
The Canadian Space Agency selected CSMC as Aqualunar Challenge grand-prize winner after three stages and announced $400,000 to continue LunaPure development. The concept is a self-contained, low-maintenance sustainable lunar-water purification system. The award establishes competitive selection and continuing development, not lunar deployment or commercial availability.
Supports: LunaPure Lunar Water Purification · defence applications
The Canadian Space Agency selected CSMC as Aqualunar Challenge grand-prize winner after three stages and announced $400,000 to continue LunaPure development. The concept is a self-contained, low-maintenance sustainable lunar-water purification system. The award establishes competitive selection and continuing development, not lunar deployment or commercial availability.
Supports: LunaPure Lunar Water Purification · defence applications
The Canadian Space Agency selected CSMC as Aqualunar Challenge grand-prize winner after three stages and announced $400,000 to continue LunaPure development. The concept is a self-contained, low-maintenance sustainable lunar-water purification system. The award establishes competitive selection and continuing development, not lunar deployment or commercial availability.
Supports: LunaPure Lunar Water Purification · technicaldomainslugs
The Canadian Space Agency selected CSMC as Aqualunar Challenge grand-prize winner after three stages and announced $400,000 to continue LunaPure development. The concept is a self-contained, low-maintenance sustainable lunar-water purification system. The award establishes competitive selection and continuing development, not lunar deployment or commercial availability.
Supports: LunaPure Lunar Water Purification · technicaldomainslugs
The Canadian Space Agency selected CSMC as Aqualunar Challenge grand-prize winner after three stages and announced $400,000 to continue LunaPure development. The concept is a self-contained, low-maintenance sustainable lunar-water purification system. The award establishes competitive selection and continuing development, not lunar deployment or commercial availability.
Supports: LunaPure Lunar Water Purification · technical tags
The Canadian Space Agency selected CSMC as Aqualunar Challenge grand-prize winner after three stages and announced $400,000 to continue LunaPure development. The concept is a self-contained, low-maintenance sustainable lunar-water purification system. The award establishes competitive selection and continuing development, not lunar deployment or commercial availability.
Supports: LunaPure Lunar Water Purification · technology readiness level
The Canadian Space Agency selected CSMC as Aqualunar Challenge grand-prize winner after three stages and announced $400,000 to continue LunaPure development. The concept is a self-contained, low-maintenance sustainable lunar-water purification system. The award establishes competitive selection and continuing development, not lunar deployment or commercial availability.
Supports: LunaPure Lunar Water Purification · commercial availability
The Canadian Space Agency selected CSMC as Aqualunar Challenge grand-prize winner after three stages and announced $400,000 to continue LunaPure development. The concept is a self-contained, low-maintenance sustainable lunar-water purification system. The award establishes competitive selection and continuing development, not lunar deployment or commercial availability.
Supports: LunaPure Lunar Water Purification · summary
The Canadian Space Agency selected CSMC as Aqualunar Challenge grand-prize winner after three stages and announced $400,000 to continue LunaPure development. The concept is a self-contained, low-maintenance sustainable lunar-water purification system. The award establishes competitive selection and continuing development, not lunar deployment or commercial availability.
Corporations Canada lists Canadian Strategic Missions Corporation as Active, incorporated November 25, 2020 under the CBCA, with its former name Canadian Space Mining Corporation ending December 15, 2025. Daniel Sax is the sole listed individual with significant control, indirectly holding more than 75% of shares. Annual filings for 2024 and 2025 are Filed and 2026 is Not due. Inspected October 5, 2026; personal addresses are excluded.
Supports: Profile · ownership
Corporations Canada lists Canadian Strategic Missions Corporation as Active, incorporated November 25, 2020 under the CBCA, with its former name Canadian Space Mining Corporation ending December 15, 2025. Daniel Sax is the sole listed individual with significant control, indirectly holding more than 75% of shares. Annual filings for 2024 and 2025 are Filed and 2026 is Not due. Inspected October 5, 2026; personal addresses are excluded.
True North Map derives this first-conversation question from the documented Canadian Strategic Missions Corporation capability, current evidence and the decision gap that remains.
Supports: Profile · dual use posture
CSMC presents LEUNR for Canadian defence, Indigenous communities, space exploration and remote commercial power as intended applications.
Canadian Strategic Missions Corporation identifies wholly owned CSMC Nuclear and CSMC Labs. Labs covers quantum, natural resources and related R&D; Nuclear develops portable reactors. The website retains a 2029 LEUNR demonstration target and subsequent deployment ambition, not a claim that a licensed reactor is operating.
Supports: Profile · operating context
CSMC describes wholly owned CSMC Nuclear and CSMC Labs and their development-stage space, nuclear, quantum and robotics work.
Supports: Profile · profileData.portfolioScope
CSMC describes two wholly owned subsidiaries: Nuclear and Labs. Labs conducts R&D in quantum, robotics, nano-materials, electrochemistry, industrial automation and space systems. The homepage offers a contact form for partnerships, investors and other inquiries.
CSMC states a 2029 demonstration target for its LEUNR concept, but the official organization page does not identify a target-specific CNSC pre-licensing, licensing or site pathway.
Supports: Profile · profileData.publicContact
The official website provides a public contact form with routes for partnerships, investors, media, careers and general inquiries.
Supports: Profile · profileData.portfolioScope
CSMC's official site describes wholly owned nuclear and R&D divisions working across microreactors, quantum, robotics, nanomaterials, electrochemistry, industrial automation, natural resources and space systems.
Supports: Profile · executive relevance summary
Source location: executiveRelevanceSummary
Canadian Strategic Missions Corporation identifies wholly owned CSMC Nuclear and CSMC Labs. Labs covers quantum, natural resources and related R&D; Nuclear develops portable reactors. The website retains a 2029 LEUNR demonstration target and subsequent deployment ambition, not a claim that a licensed reactor is operating.
Canadian Strategic Missions Corporation identifies wholly owned CSMC Nuclear and CSMC Labs. Labs covers quantum, natural resources and related R&D; Nuclear develops portable reactors. The website retains a 2029 LEUNR demonstration target and subsequent deployment ambition, not a claim that a licensed reactor is operating.
The official public contact pathway for Canadian Strategic Missions Corporation is https://strategicmissions.ca/.
Supports: Profile · operating context
CSMC identifies CSMC Nuclear and CSMC Labs as wholly owned parts of its space-and-defence technology portfolio.
Supports: Profile · editorial profile version
Canadian Strategic Missions Corporation has sufficient mapped public evidence for private reviewer consideration of the shared editorial profile template.
Supports: LEUNR Micro-Nuclear Reactor · name
CSMC expands LEUNR as Low Enriched Uranium Nuclear Reactor.
Supports: LEUNR Micro-Nuclear Reactor · summary
CSMC describes LEUNR as an adaptation of Canadian research-reactor technology for portable remote and commercial power, with a company target to demonstrate the system by 2029.
Supports: LEUNR Micro-Nuclear Reactor → Dual-use northern infrastructure and partnerships
CSMC describes LEUNR as an adaptation of Canadian research-reactor technology for portable remote and commercial power, with a company target to demonstrate the system by 2029.
The official site identifies CSMC Labs as a wholly owned R&D division commercializing deep technologies in quantum, natural resources and related fields.
Supports: wholly_owned_subsidiary relationship
Source location: relationships.4.publicSummary
The official site identifies CSMC Nuclear as a wholly owned subsidiary focused on portable nuclear reactors for remote environments.
NATO DIANA lists CSMC in the 2026 Critical Infrastructure and Logistics cohort for remote monitoring of micro modular reactors.
Supports: NATO DIANA 2026 Mission Control · organization participation
The public cohort label is 2026 Critical Infrastructure and Logistics.
Supports: NATO DIANA 2026 Mission Control · organization participation
The supported lifecycle classification is selected.
Supports: NATO DIANA 2026 Mission Control · organization participation
CSMC's participation is Cohort company.
Supports: NATO DIANA 2026 Mission Control · canonical program
NATO DIANA 2026 Mission Control is classified as Defence technology accelerator program.
Supports: NATO DIANA 2026 Mission Control · canonical program
https://www.diana.nato.int/about-diana/2026-cohort-of-companies.html is the durable program source.
Supports: NATO DIANA 2026 Mission Control · canonical program
NATO DIANA 2026 Mission Control is the public program name.
Supports: NATO DIANA 2026 Mission Control · canonical program
NATO Defence Innovation Accelerator for the North Atlantic operates the named program.
Supports: NATO DIANA 2026 Mission Control · canonical program
A 2026 Critical Infrastructure and Logistics accelerator project for Mission Control remote monitoring of micro modular reactors, supported by Canadian project RD-029.
Derived reviewer question: How do 2028 criticality, 2029 demonstration and 2029-2030 Arctic deployment depend on licensing, fuel, siting, prototype evidence and corporate filing remediation?
Supports: Profile · canadian footprint
Corporations Canada records Toronto as the corporation's registered-office city.
Derived decision context: The August 2026 CEO interview advances criticality to 2028, the official site targets demonstration by 2029, and Corporations Canada shows the company Active while warning of overdue filings and a notice of intent to dissolve.
Supports: Profile · ownership
Corporations Canada lists Canadian Strategic Missions Corporation as Active, with 2024 and 2025 annual filings Filed and 2026 Not due. Daniel Sax is the sole listed individual with significant control, owning more than 75 percent of shares indirectly. Overdue/dissolution wording occurs in hidden generic help modals, not the current filing status.
Supports: Profile · ownership
Corporations Canada lists Daniel Sax as the sole current ISC with more than 75 percent of shares held indirectly, while also flagging two overdue annual filings and a notice of intent to dissolve; status remains Active.
Derived decision context: The historical OECD-NEA design basis uses 10 to below 20 percent enriched fuel, while the reviewed public record contains no CSMC fuel-supply or qualification agreement.
Supports: LEUNR Micro-Nuclear Reactor · core features
The 2025 OECD-NEA profile records a historical 0.1 MWth pressurized light-water basis with a 130 C core outlet.
Supports: LEUNR Micro-Nuclear Reactor · capability type
OECD-NEA classifies LEUNR as a pressurized light-water microreactor for Earth and space applications.
Supports: Technology-licensing term sheet relationship
OECD-NEA characterizes the arrangement as a licensing term sheet for SLOWPOKE-2 technology.
Supports: Technology-licensing term sheet relationship
OECD-NEA names Canadian Nuclear Laboratories as the counterparty to the reported November 2024 term sheet.
Supports: Technology-licensing term sheet relationship
OECD-NEA reports a November 2024 SLOWPOKE-2 licensing term sheet and separately notes no verifiable additional licensing, pre-licensing or siting progress at its assessment point.
Ontario Water Consortium reports that CSMC had validated QASM performance models and developed commercial-prototype design parameters in 2023. WIG supported further model fidelity, deep learning and engagement of a University of Waterloo geophysicist for third-party validation. The article describes intended next tests and a five-year satellite-launch goal, not a completed flight instrument.
Supports: Profile · operating context
Ontario Water Consortium reports that CSMC had validated QASM performance models and developed commercial-prototype design parameters in 2023. WIG supported further model fidelity, deep learning and engagement of a University of Waterloo geophysicist for third-party validation. The article describes intended next tests and a five-year satellite-launch goal, not a completed flight instrument.
Ontario Water Consortium reports that CSMC had validated QASM performance models and developed commercial-prototype design parameters in 2023. WIG supported further model fidelity, deep learning and engagement of a University of Waterloo geophysicist for third-party validation. The article describes intended next tests and a five-year satellite-launch goal, not a completed flight instrument.
Ontario Water Consortium reports that CSMC had validated QASM performance models and developed commercial-prototype design parameters in 2023. WIG supported further model fidelity, deep learning and engagement of a University of Waterloo geophysicist for third-party validation. The article describes intended next tests and a five-year satellite-launch goal, not a completed flight instrument.
National Defence records a C$1 million grant to Canadian Space Mining Corporation for LEUNR from April 3, 2025 to September 30, 2027 under IDEaS NORAD Modernization S&T. The disclosed challenge includes scalable, efficient and sustainable Arctic energy; it is R&D support rather than a reactor purchase.
National Defence records a C$1 million grant to Canadian Space Mining Corporation for LEUNR from April 3, 2025 to September 30, 2027 under IDEaS NORAD Modernization S&T. The disclosed challenge includes scalable, efficient and sustainable Arctic energy; it is R&D support rather than a reactor purchase.
National Defence records a C$1 million grant to Canadian Space Mining Corporation for LEUNR from April 3, 2025 to September 30, 2027 under IDEaS NORAD Modernization S&T. The disclosed challenge includes scalable, efficient and sustainable Arctic energy; it is R&D support rather than a reactor purchase.
National Defence records a C$1 million grant to Canadian Space Mining Corporation for LEUNR from April 3, 2025 to September 30, 2027 under IDEaS NORAD Modernization S&T. The disclosed challenge includes scalable, efficient and sustainable Arctic energy; it is R&D support rather than a reactor purchase.
National Defence records a C$1 million grant to Canadian Space Mining Corporation for LEUNR from April 3, 2025 to September 30, 2027 under IDEaS NORAD Modernization S&T. The disclosed challenge includes scalable, efficient and sustainable Arctic energy; it is R&D support rather than a reactor purchase.
National Defence records a C$1 million grant to Canadian Space Mining Corporation for LEUNR from April 3, 2025 to September 30, 2027 under IDEaS NORAD Modernization S&T. The disclosed challenge includes scalable, efficient and sustainable Arctic energy; it is R&D support rather than a reactor purchase.
National Defence records a C$1 million grant to Canadian Space Mining Corporation for LEUNR from April 3, 2025 to September 30, 2027 under IDEaS NORAD Modernization S&T. The disclosed challenge includes scalable, efficient and sustainable Arctic energy; it is R&D support rather than a reactor purchase.
National Defence records a C$1 million grant to Canadian Space Mining Corporation for LEUNR from April 3, 2025 to September 30, 2027 under IDEaS NORAD Modernization S&T. The disclosed challenge includes scalable, efficient and sustainable Arctic energy; it is R&D support rather than a reactor purchase.
National Defence records a C$1 million grant to Canadian Space Mining Corporation for LEUNR from April 3, 2025 to September 30, 2027 under IDEaS NORAD Modernization S&T. The disclosed challenge includes scalable, efficient and sustainable Arctic energy; it is R&D support rather than a reactor purchase.
Supports: IDEaS NORAD Modernization LEUNR Project · canonical program
Figure 6 of WO2025073059A1 compares an input impedance shape, an electrical impedance tomography reconstruction and an ultrasound-informed reconstruction. Paragraph 0066 explicitly identifies the fused data as simulated. This is simulation evidence, without a reported field trial, clinical evaluation or quantified product resolution.
Supports: Profile · operating context
Figure 6 of WO2025073059A1 compares an input impedance shape, an electrical impedance tomography reconstruction and an ultrasound-informed reconstruction. Paragraph 0066 explicitly identifies the fused data as simulated. This is simulation evidence, without a reported field trial, clinical evaluation or quantified product resolution.
Figure 6 of WO2025073059A1 compares an input impedance shape, an electrical impedance tomography reconstruction and an ultrasound-informed reconstruction. Paragraph 0066 explicitly identifies the fused data as simulated. This is simulation evidence, without a reported field trial, clinical evaluation or quantified product resolution.
Supports: Time and Impedance Multi-Sensor Imaging · maturity
Figure 6 of WO2025073059A1 compares an input impedance shape, an electrical impedance tomography reconstruction and an ultrasound-informed reconstruction. Paragraph 0066 explicitly identifies the fused data as simulated. This is simulation evidence, without a reported field trial, clinical evaluation or quantified product resolution.
Supports: Time and Impedance Multi-Sensor Imaging · summary
The CSMC patent application WO2025073059A1 describes TIMS within a temporal and impedance prospecting system. Example embodiments combine electrical impedance tomography with ultrasound, using time-domain electrical measurements and structural information from an auxiliary imaging modality. These are disclosed embodiments rather than a supplied product configuration.
Supports: Time and Impedance Multi-Sensor Imaging · technical tags
The CSMC patent application WO2025073059A1 describes TIMS within a temporal and impedance prospecting system. Example embodiments combine electrical impedance tomography with ultrasound, using time-domain electrical measurements and structural information from an auxiliary imaging modality. These are disclosed embodiments rather than a supplied product configuration.
Supports: Time and Impedance Multi-Sensor Imaging · core features
The CSMC patent application WO2025073059A1 describes TIMS within a temporal and impedance prospecting system. Example embodiments combine electrical impedance tomography with ultrasound, using time-domain electrical measurements and structural information from an auxiliary imaging modality. These are disclosed embodiments rather than a supplied product configuration.
Supports: Time and Impedance Multi-Sensor Imaging · technology readiness level
Figure 6 of WO2025073059A1 compares an input impedance shape, an electrical impedance tomography reconstruction and an ultrasound-informed reconstruction. Paragraph 0066 explicitly identifies the fused data as simulated. This is simulation evidence, without a reported field trial, clinical evaluation or quantified product resolution.
Supports: Time and Impedance Multi-Sensor Imaging · summary
Figure 6 of WO2025073059A1 compares an input impedance shape, an electrical impedance tomography reconstruction and an ultrasound-informed reconstruction. Paragraph 0066 explicitly identifies the fused data as simulated. This is simulation evidence, without a reported field trial, clinical evaluation or quantified product resolution.
Supports: Time and Impedance Multi-Sensor Imaging · core features
The CSMC patent application WO2025073059A1 describes TIMS within a temporal and impedance prospecting system. Example embodiments combine electrical impedance tomography with ultrasound, using time-domain electrical measurements and structural information from an auxiliary imaging modality. These are disclosed embodiments rather than a supplied product configuration.
Supports: Time and Impedance Multi-Sensor Imaging · technicaldomainslugs
The CSMC patent application WO2025073059A1 describes TIMS within a temporal and impedance prospecting system. Example embodiments combine electrical impedance tomography with ultrasound, using time-domain electrical measurements and structural information from an auxiliary imaging modality. These are disclosed embodiments rather than a supplied product configuration.
Supports: Time and Impedance Multi-Sensor Imaging · commercial availability
Figure 6 of WO2025073059A1 compares an input impedance shape, an electrical impedance tomography reconstruction and an ultrasound-informed reconstruction. Paragraph 0066 explicitly identifies the fused data as simulated. This is simulation evidence, without a reported field trial, clinical evaluation or quantified product resolution.
Supports: Time and Impedance Multi-Sensor Imaging · core features
The CSMC patent application WO2025073059A1 describes TIMS within a temporal and impedance prospecting system. Example embodiments combine electrical impedance tomography with ultrasound, using time-domain electrical measurements and structural information from an auxiliary imaging modality. These are disclosed embodiments rather than a supplied product configuration.
Supports: Time and Impedance Multi-Sensor Imaging · technical tags
The CSMC patent application WO2025073059A1 describes TIMS within a temporal and impedance prospecting system. Example embodiments combine electrical impedance tomography with ultrasound, using time-domain electrical measurements and structural information from an auxiliary imaging modality. These are disclosed embodiments rather than a supplied product configuration.
Supports: Time and Impedance Multi-Sensor Imaging · technical tags
The CSMC patent application WO2025073059A1 describes TIMS within a temporal and impedance prospecting system. Example embodiments combine electrical impedance tomography with ultrasound, using time-domain electrical measurements and structural information from an auxiliary imaging modality. These are disclosed embodiments rather than a supplied product configuration.
Supports: Time and Impedance Multi-Sensor Imaging · technical tags
The CSMC patent application WO2025073059A1 describes TIMS within a temporal and impedance prospecting system. Example embodiments combine electrical impedance tomography with ultrasound, using time-domain electrical measurements and structural information from an auxiliary imaging modality. These are disclosed embodiments rather than a supplied product configuration.
Supports: Time and Impedance Multi-Sensor Imaging · technical tags
The CSMC patent application WO2025073059A1 describes TIMS within a temporal and impedance prospecting system. Example embodiments combine electrical impedance tomography with ultrasound, using time-domain electrical measurements and structural information from an auxiliary imaging modality. These are disclosed embodiments rather than a supplied product configuration.
Supports: Time and Impedance Multi-Sensor Imaging · technicaldomainslugs
The CSMC patent application WO2025073059A1 describes TIMS within a temporal and impedance prospecting system. Example embodiments combine electrical impedance tomography with ultrasound, using time-domain electrical measurements and structural information from an auxiliary imaging modality. These are disclosed embodiments rather than a supplied product configuration.
Telesat confirms a May 26, 2026 MOU with CSMC to explore Lightspeed connectivity for remote monitoring, operation and sustainment of microreactors in Arctic and remote environments. It establishes technical discussions and potential pilots; future commercial or operational arrangements require definitive agreements.
Supports: Profile · dual use posture
Telesat confirms a May 26, 2026 MOU with CSMC for potential Lightspeed-supported remote reactor monitoring, operation and sustainment. It provides for technical discussions and possible pilots; commercial and operational arrangements require definitive agreements.
Supports: Profile · executive relevance summary
Source location: executiveRelevanceSummary
Telesat confirms a May 26, 2026 MOU with CSMC for potential Lightspeed-supported remote reactor monitoring, operation and sustainment. It provides for technical discussions and possible pilots; commercial and operational arrangements require definitive agreements.
Supports: LEUNR Micro-Nuclear Reactor · core features
The Telesat MOU covers planned Lightspeed-supported monitoring, operation and sustainment of CSMC reactor systems.
Telesat describes planned secure remote monitoring and operation connectivity.
Supports: LEUNR Micro-Nuclear Reactor → Edge Data Processing
Retain Edge Data Processing as a reviewed derived connection through the possible power and connectivity role for remote infrastructure.
Supports: LEUNR Micro-Nuclear Reactor → Edge Data Processing
Our assessment retains the conditional edge-infrastructure connection only if LEUNR is successfully demonstrated and deployed.
Supports: Strategic collaboration memorandum of understanding relationship
Telesat describes the arrangement as a memorandum of understanding and strategic collaboration framework.
Supports: Strategic collaboration memorandum of understanding relationship
The reviewed public atlas contains the related organization under the stable slug telesat.
Supports: Strategic collaboration memorandum of understanding relationship
The MOU explores Lightspeed-supported monitoring, operation and sustainment, while future pilots and commercial or operational arrangements require definitive agreements.
Supports: Strategic collaboration memorandum of understanding relationship
Telesat is the counterparty named in the strategic collaboration announcement.
NGen lists CSMC as lead of Automated Manufacturing for Nuclear Micro-Reactors, with Samuel Automation and Stern Laboratories as partners. This identifies project workshare, not an operating serial-production line.
Supports: Profile · operating context
NGen lists an automated-manufacturing development project led by CSMC with Samuel Automation and Stern Laboratories.
Supports: Profile · executive relevance summary
Source location: executiveRelevanceSummary
NGen lists CSMC as lead of Automated Manufacturing for Nuclear Micro-Reactors, with Samuel Automation and Stern Laboratories as partners. This identifies project workshare, not an operating serial-production line.
Retain advanced manufacturing and integration as a derived domain because NGen funds manufacturing-process development and partner integration.
Supports: Automated Manufacturing for Nuclear Micro-Reactors · organization participation
The public cohort label is Advanced Manufacturing Technology Program.
Supports: Automated Manufacturing for Nuclear Micro-Reactors · organization participation
CSMC's participation is Project lead.
Supports: Automated Manufacturing for Nuclear Micro-Reactors · organization participation
The supported lifecycle classification is funded.
Supports: Automated Manufacturing for Nuclear Micro-Reactors · organization participation
NGen identifies CSMC as lead and Samuel Automation and Stern Laboratories as partners; the project develops manufacturing capability and does not establish an operating serial-production line.
Supports: Automated Manufacturing for Nuclear Micro-Reactors · organization participation
The program announcement date is 2026-04-20.
Supports: Automated Manufacturing for Nuclear Micro-Reactors · canonical program
https://www.globenewswire.com/news-release/2026/04/20/3276730/0/en/ngen-announces-62-7m-in-world-leading-advanced-manufacturing-projects.html is the durable program source.
Supports: Automated Manufacturing for Nuclear Micro-Reactors · canonical program
Automated Manufacturing for Nuclear Micro-Reactors is classified as Advanced manufacturing technology project.
Supports: Automated Manufacturing for Nuclear Micro-Reactors · canonical program
NGen operates the named program.
Supports: Automated Manufacturing for Nuclear Micro-Reactors · canonical program
A C$3 million project with a C$1.2 million public contribution to develop an in-factory LEUNR manufacturing cell, led by CSMC with Samuel Automation and Stern Laboratories.
Supports: Automated Manufacturing for Nuclear Micro-Reactors · canonical program
Automated Manufacturing for Nuclear Micro-Reactors is the public program name.
On July 23, 2026, FedDev Ontario announced a $4.5 million contribution toward CSMC's $10.095 million micro-nuclear power development project for Arctic defence operations and remote energy applications.
Supports: Profile · canadian footprint
FedDev identifies CSMC as Waterloo-based.
Supports: Profile · disclosed financing summary
FedDev records a C$4.5 million contribution toward a C$10,095,066 micro-nuclear project for Arctic defence and remote energy.
Supports: Profile · defence posture
FedDev Ontario identifies CSMC as Waterloo-based and contributes CAD 4.5 million toward a CAD 10,095,066 project to advance micro-nuclear power for Arctic defence and remote energy. The July 23, 2026 backgrounder describes development support, not a reactor purchase.
Supports: Profile · current activity as of
FedDev Ontario supports 2026-07-23 as the material date used for this dossier activity note.
Supports: Profile · defence posture
FedDev describes CSMC's funded project as advancing micro-nuclear technology for Arctic defence operations and remote-energy applications.
Supports: Profile · current activity
FedDev Ontario records an active $10.095 million micro-nuclear development project supported by a $4.5 million federal contribution for Arctic defence and remote-energy applications.
Supports: Profile · dual use posture
FedDev frames the project around both Arctic defence operations and remote-energy applications.
Supports: Profile · profileData.currentActivity
FedDev Ontario records an active $10.095 million micro-nuclear development project supported by a $4.5 million federal contribution for Arctic defence and remote-energy applications.
Supports: Profile · canadian footprint
FedDev identifies Canadian Strategic Missions Corporation as Waterloo-based.
Supports: Profile · operating context
FedDev identifies CSMC's micro-nuclear power development as serving Arctic defence and remote-energy applications.
FedDev Ontario identifies Waterloo-based CSMC as receiving a C$4.5 million contribution toward a C$10,095,066 micro-nuclear technology project for Arctic defence and remote energy. The company is the contribution recipient, while FedDev administers the support; the total project cost is not the federal contribution or revenue.
FedDev Ontario records a $4.5 million contribution toward a $10.095 million project to advance CSMC micro-nuclear technology for Arctic defence and remote energy.
FedDev Ontario identifies Waterloo-based CSMC as receiving a C$4.5 million contribution toward a C$10,095,066 micro-nuclear technology project for Arctic defence and remote energy. The company is the contribution recipient, while FedDev administers the support; the total project cost is not the federal contribution or revenue.
FedDev Ontario identifies Waterloo-based CSMC as receiving a C$4.5 million contribution toward a C$10,095,066 micro-nuclear technology project for Arctic defence and remote energy. The company is the contribution recipient, while FedDev administers the support; the total project cost is not the federal contribution or revenue.
FedDev Ontario identifies Waterloo-based CSMC as receiving a C$4.5 million contribution toward a C$10,095,066 micro-nuclear technology project for Arctic defence and remote energy. The company is the contribution recipient, while FedDev administers the support; the total project cost is not the federal contribution or revenue.
FedDev Ontario identifies Waterloo-based CSMC as receiving a C$4.5 million contribution toward a C$10,095,066 micro-nuclear technology project for Arctic defence and remote energy. The company is the contribution recipient, while FedDev administers the support; the total project cost is not the federal contribution or revenue.
FedDev Ontario identifies Waterloo-based CSMC as receiving a C$4.5 million contribution toward a C$10,095,066 micro-nuclear technology project for Arctic defence and remote energy. The company is the contribution recipient, while FedDev administers the support; the total project cost is not the federal contribution or revenue.
FedDev Ontario identifies Waterloo-based CSMC as receiving a C$4.5 million contribution toward a C$10,095,066 micro-nuclear technology project for Arctic defence and remote energy. The company is the contribution recipient, while FedDev administers the support; the total project cost is not the federal contribution or revenue.
Supports: FedDev Ontario Microreactor Scale-Up Project · canonical program
FedDev Ontario records a $4.5 million contribution toward a $10.095 million project to advance CSMC micro-nuclear technology for Arctic defence and remote energy.
The CSA contribution supports a representative unfuelled LEUNR prototype and technology maturation from TRL 4/5 toward TRL 6 by August 31, 2027. It is development funding, not proof of a licensed fueled reactor, commercial delivery or completed higher TRL.
The CSA contribution supports a representative unfuelled LEUNR prototype and technology maturation from TRL 4/5 toward TRL 6 by August 31, 2027. It is development funding, not proof of a licensed fueled reactor, commercial delivery or completed higher TRL.
Supports: Profile · executive relevance summary
Source location: executiveRelevanceSummary
The CSA contribution supports a representative unfuelled LEUNR prototype and technology maturation from TRL 4/5 toward TRL 6 by August 31, 2027. It is development funding, not proof of a licensed fueled reactor, commercial delivery or completed higher TRL.
The CSA contribution supports a representative unfuelled LEUNR prototype and technology maturation from TRL 4/5 toward TRL 6 by August 31, 2027. It is development funding, not proof of a licensed fueled reactor, commercial delivery or completed higher TRL.
The CSA contribution supports a representative unfuelled LEUNR prototype and technology maturation from TRL 4/5 toward TRL 6 by August 31, 2027. It is development funding, not proof of a licensed fueled reactor, commercial delivery or completed higher TRL.
CSA agreement 25STDPX13 provides CAD 1 million from July 31, 2025 to August 31, 2027 for LEUNR representative unfuelled testing and progression from TRL 4/5 conceptual design toward TRL 6 detailed design.
Supports: LEUNR Micro-Nuclear Reactor · maturity
CSA agreement 25STDPX13 provides CAD 1 million from July 31, 2025 to August 31, 2027 for LEUNR representative unfuelled testing and progression from TRL 4/5 conceptual design toward TRL 6 detailed design.
Supports: LEUNR Micro-Nuclear Reactor · core features
CSA agreement 25STDPX13 provides CAD 1 million from July 31, 2025 to August 31, 2027 for LEUNR representative unfuelled testing and progression from TRL 4/5 conceptual design toward TRL 6 detailed design.
CSA agreement 25STDPX13 provides CAD 1 million from July 31, 2025 to August 31, 2027 for LEUNR representative unfuelled testing and progression from TRL 4/5 conceptual design toward TRL 6 detailed design.
CSA agreement 25STDPX13 provides CAD 1 million from July 31, 2025 to August 31, 2027 for LEUNR representative unfuelled testing and progression from TRL 4/5 conceptual design toward TRL 6 detailed design.
CSA agreement 25STDPX13 provides CAD 1 million from July 31, 2025 to August 31, 2027 for LEUNR representative unfuelled testing and progression from TRL 4/5 conceptual design toward TRL 6 detailed design.
Derived reviewer question: Which current thermal and electric rating, fuel, coolant, mass, transport, refuelling and heat-rejection baseline should a buyer evaluate?
Derived decision context: The 2025 OECD-NEA profile gives a historical 0.1 MWth and 130 C basis, while a CNL-authored paper identifies heat-rejection constraints for low-temperature lunar light-water concepts and the company publishes no current specification.
CSMC announced April 20, 2026 that a CAD 3 million NGen-supported project includes CAD 1.2 million public funding and partners Samuel Automation and Stern Laboratories to develop an in-factory microreactor manufacturing cell. Its text names LEUNR, not a completed POLAR-1 production line.
Supports: Profile · executive relevance summary
Source location: executiveRelevanceSummary
CSMC announced April 20, 2026 that a CAD 3 million NGen-supported project includes CAD 1.2 million public funding and partners Samuel Automation and Stern Laboratories to develop an in-factory microreactor manufacturing cell. Its text names LEUNR, not a completed POLAR-1 production line.
Supports: Profile · disclosed financing summary
CSMC reports C$1.2 million, 40 percent of a C$3 million NGen project, for an in-factory LEUNR manufacturing cell.
CSMC announced April 20, 2026 that a CAD 3 million NGen-supported project includes CAD 1.2 million public funding and partners Samuel Automation and Stern Laboratories to develop an in-factory microreactor manufacturing cell. Its text names LEUNR, not a completed POLAR-1 production line.
Supports: POLAR-1 Terrestrial Microreactor → Arctic operational reach and sustainment
CSMC announced April 20, 2026 that a CAD 3 million NGen-supported project includes CAD 1.2 million public funding and partners Samuel Automation and Stern Laboratories to develop an in-factory microreactor manufacturing cell. Its text names LEUNR, not a completed POLAR-1 production line.
Supports: POLAR-1 Terrestrial Microreactor → Sovereign defence capability areas
CSMC announced April 20, 2026 that a CAD 3 million NGen-supported project includes CAD 1.2 million public funding and partners Samuel Automation and Stern Laboratories to develop an in-factory microreactor manufacturing cell. Its text names LEUNR, not a completed POLAR-1 production line.
Supports: POLAR-1 Terrestrial Microreactor → Dual-use northern infrastructure and partnerships
CSMC announced April 20, 2026 that a CAD 3 million NGen-supported project includes CAD 1.2 million public funding and partners Samuel Automation and Stern Laboratories to develop an in-factory microreactor manufacturing cell. Its text names LEUNR, not a completed POLAR-1 production line.
CSMC’s May 19, 2026 article locates QASM in CSMC Labs and again schedules early laboratory demonstrations in 2026, with field testing and an orbital demonstration later. Its cold-atom and tomographic mapping descriptions are company claims, without measured sensitivity or test conditions in the article.
CSMC’s May 19, 2026 article locates QASM in CSMC Labs and again schedules early laboratory demonstrations in 2026, with field testing and an orbital demonstration later. Its cold-atom and tomographic mapping descriptions are company claims, without measured sensitivity or test conditions in the article.
CSMC’s May 19, 2026 article locates QASM in CSMC Labs and again schedules early laboratory demonstrations in 2026, with field testing and an orbital demonstration later. Its cold-atom and tomographic mapping descriptions are company claims, without measured sensitivity or test conditions in the article.
CSMC’s May 19, 2026 article locates QASM in CSMC Labs and again schedules early laboratory demonstrations in 2026, with field testing and an orbital demonstration later. Its cold-atom and tomographic mapping descriptions are company claims, without measured sensitivity or test conditions in the article.
CSMC’s May 19, 2026 article locates QASM in CSMC Labs and again schedules early laboratory demonstrations in 2026, with field testing and an orbital demonstration later. Its cold-atom and tomographic mapping descriptions are company claims, without measured sensitivity or test conditions in the article.
CSMC’s May 19, 2026 article locates QASM in CSMC Labs and again schedules early laboratory demonstrations in 2026, with field testing and an orbital demonstration later. Its cold-atom and tomographic mapping descriptions are company claims, without measured sensitivity or test conditions in the article.
CSMC’s May 19, 2026 article locates QASM in CSMC Labs and again schedules early laboratory demonstrations in 2026, with field testing and an orbital demonstration later. Its cold-atom and tomographic mapping descriptions are company claims, without measured sensitivity or test conditions in the article.
CSMC’s May 19, 2026 article locates QASM in CSMC Labs and again schedules early laboratory demonstrations in 2026, with field testing and an orbital demonstration later. Its cold-atom and tomographic mapping descriptions are company claims, without measured sensitivity or test conditions in the article.
DND agreement RD-029 funds Mission Control remote-monitoring R&D for micro modular reactors.
Supports: Profile · canadian footprint
The DND agreement records CSMC at a Toronto address.
Supports: Profile · disclosed financing summary
National Defence records C$169,000 for Mission Control - Remote Monitoring for Micro Modular Reactors under project RD-029.
Supports: NATO DIANA 2026 Mission Control · organization participation
RD-029 is recorded as a project identifier.
Supports: NATO DIANA 2026 Mission Control · organization participation
The external identifier is RD-029.
Supports: NATO DIANA 2026 Mission Control · organization participation
NATO DIANA lists CSMC for remote monitoring of micro modular reactors; National Defence separately records C$169,000 for Mission Control under RD-029. Selection and funding do not establish deployment.
The CSMC Labs pitchbook profile uses Quantum Anomaly & Subsurface Mapper for QASM and describes terrestrial and space quantum-sensing development in Waterloo. This differs from the Quantum Atomic Subsurface Mapper name in the 2025 contract announcement. The first-person company pitch is attributed positioning, not independent demonstration or proof that a separately named technology exists.
The CSMC Labs pitchbook profile uses Quantum Anomaly & Subsurface Mapper for QASM and describes terrestrial and space quantum-sensing development in Waterloo. This differs from the Quantum Atomic Subsurface Mapper name in the 2025 contract announcement. The first-person company pitch is attributed positioning, not independent demonstration or proof that a separately named technology exists.
Daniel Sax says CSMC has built an unfuelled reactor version and is working toward fueled demonstration or criticality in 2028 and Arctic deployment in 2029 or 2030, likely preceded by a southern pilot. He describes fuel-supply discussions. These remain attributed company milestones, not independent confirmation of licensing, fuel qualification or delivery.
Supports: Profile · executive relevance summary
Source location: executiveRelevanceSummary
Daniel Sax says CSMC has built an unfuelled reactor version and is working toward fueled demonstration or criticality in 2028 and Arctic deployment in 2029 or 2030, likely preceded by a southern pilot. He describes fuel-supply discussions. These remain attributed company milestones, not independent confirmation of licensing, fuel qualification or delivery.
Daniel Sax says CSMC has built an unfuelled reactor version and is working toward fueled demonstration or criticality in 2028 and Arctic deployment in 2029 or 2030, likely preceded by a southern pilot. He describes fuel-supply discussions. These remain attributed company milestones, not independent confirmation of licensing, fuel qualification or delivery.
Daniel Sax says CSMC has built an unfuelled reactor version and is working toward fueled demonstration or criticality in 2028 and Arctic deployment in 2029 or 2030, likely preceded by a southern pilot. He describes fuel-supply discussions. These remain attributed company milestones, not independent confirmation of licensing, fuel qualification or delivery.
Daniel Sax says CSMC has built an unfuelled reactor version and is working toward fueled demonstration or criticality in 2028 and Arctic deployment in 2029 or 2030, likely preceded by a southern pilot. He describes fuel-supply discussions. These remain attributed company milestones, not independent confirmation of licensing, fuel qualification or delivery.
Daniel Sax says CSMC has built an unfuelled reactor version and is working toward fueled demonstration or criticality in 2028 and Arctic deployment in 2029 or 2030, likely preceded by a southern pilot. He describes fuel-supply discussions. These remain attributed company milestones, not independent confirmation of licensing, fuel qualification or delivery.
Daniel Sax says CSMC has built an unfuelled reactor version and is working toward fueled demonstration or criticality in 2028 and Arctic deployment in 2029 or 2030, likely preceded by a southern pilot. He describes fuel-supply discussions. These remain attributed company milestones, not independent confirmation of licensing, fuel qualification or delivery.
Daniel Sax described 2028 criticality and 2029-2030 Arctic deployment as company goals, while no reviewed public source establishes a licence, site, fueled test, order or deployment.
Our assessment combines the funded LEUNR workstreams with their licensing, fuel, siting, customer and corporate-continuity limits for a bounded first-conversation decision.
Supports: Profile · disclosed financing summary
CSA agreement 25STDPX13 provides C$1 million for the LEUNR project from 2025-07-31 through 2027-08-31.
Supports: Profile · dual use posture
The CSA project advances LEUNR as a space micro modular reactor through representative unfuelled analogue testing.
Supports: Profile · operating context
CSA's funded LEUNR work covers conceptual and detailed design plus representative unfuelled analogue testing.
CSA places LEUNR at TRL 4/5 conceptual design and targets TRL 6 detailed design by 2027-08-31; ERA separately describes active unfuelled-prototype development.
Retain aerospace and mobility as a derived domain because the CSA program frames LEUNR for space applications.
Supports: LEUNR Micro-Nuclear Reactor · summary
Public program evidence supports representative unfuelled analogue work and detailed-design objectives for LEUNR, not a licensed, fueled or deployed reactor.
Supports: LEUNR Micro-Nuclear Reactor · core features
CSA agreement 25STDPX13 provides C$1 million from July 31, 2025 to August 31, 2027 for representative unfuelled analogue-reactor testing intended to move LEUNR from TRL 4/5 conceptual design toward TRL 6 detailed design. The record remains LEUNR-specific and reports objectives rather than completion.
CSA agreement 25STDPX13 provides C$1 million from July 31, 2025 to August 31, 2027 for representative unfuelled analogue-reactor testing intended to move LEUNR from TRL 4/5 conceptual design toward TRL 6 detailed design. The record remains LEUNR-specific and reports objectives rather than completion.
CSA agreement 25STDPX13 provides C$1 million from July 31, 2025 to August 31, 2027 for representative unfuelled analogue-reactor testing intended to move LEUNR from TRL 4/5 conceptual design toward TRL 6 detailed design. The record remains LEUNR-specific and reports objectives rather than completion.
CSA agreement 25STDPX13 provides C$1 million from July 31, 2025 to August 31, 2027 for representative unfuelled analogue-reactor testing intended to move LEUNR from TRL 4/5 conceptual design toward TRL 6 detailed design. The record remains LEUNR-specific and reports objectives rather than completion.
CSA agreement 25STDPX13 provides C$1 million from July 31, 2025 to August 31, 2027 for representative unfuelled analogue-reactor testing intended to move LEUNR from TRL 4/5 conceptual design toward TRL 6 detailed design. The record remains LEUNR-specific and reports objectives rather than completion.
CSA agreement 25STDPX13 provides C$1 million from July 31, 2025 to August 31, 2027 for representative unfuelled analogue-reactor testing intended to move LEUNR from TRL 4/5 conceptual design toward TRL 6 detailed design. The record remains LEUNR-specific and reports objectives rather than completion.
CSA agreement 25STDPX13 provides C$1 million from July 31, 2025 to August 31, 2027 for representative unfuelled analogue-reactor testing intended to move LEUNR from TRL 4/5 conceptual design toward TRL 6 detailed design. The record remains LEUNR-specific and reports objectives rather than completion.
CSA agreement 25STDPX13 provides C$1 million from July 31, 2025 to August 31, 2027 for representative unfuelled analogue-reactor testing intended to move LEUNR from TRL 4/5 conceptual design toward TRL 6 detailed design. The record remains LEUNR-specific and reports objectives rather than completion.
CSA agreement 25STDPX13 provides C$1 million from July 31, 2025 to August 31, 2027 for representative unfuelled analogue-reactor testing intended to move LEUNR from TRL 4/5 conceptual design toward TRL 6 detailed design. The record remains LEUNR-specific and reports objectives rather than completion.
The federal trademark record documents the formal transition from Canadian Space Mining Corporation to Canadian Strategic Missions Corporation and a technology scope spanning nuclear, quantum, aerospace and geophysical work.
NRC IRAP records a $75,000 contribution to Canadian Space Mining Corporation to validate its Time and Impedance Multi-Sensor concept during 2022-2023. The proposed portable low-power imaging system has geotechnical, field-medical and manufacturing-inspection uses. The disclosure describes a validation objective, not a completed validation result or approved medical device.
NRC IRAP records a $75,000 contribution to Canadian Space Mining Corporation to validate its Time and Impedance Multi-Sensor concept during 2022-2023. The proposed portable low-power imaging system has geotechnical, field-medical and manufacturing-inspection uses. The disclosure describes a validation objective, not a completed validation result or approved medical device.
Supports: Profile · executive relevance summary
Source location: executiveRelevanceSummary
NRC IRAP records a $75,000 contribution to Canadian Space Mining Corporation to validate its Time and Impedance Multi-Sensor concept during 2022-2023. The proposed portable low-power imaging system has geotechnical, field-medical and manufacturing-inspection uses. The disclosure describes a validation objective, not a completed validation result or approved medical device.
Supports: Time and Impedance Multi-Sensor Imaging · technical tags
NRC IRAP records a $75,000 contribution to Canadian Space Mining Corporation to validate its Time and Impedance Multi-Sensor concept during 2022-2023. The proposed portable low-power imaging system has geotechnical, field-medical and manufacturing-inspection uses. The disclosure describes a validation objective, not a completed validation result or approved medical device.
Supports: Time and Impedance Multi-Sensor Imaging · technical tags
NRC IRAP records a $75,000 contribution to Canadian Space Mining Corporation to validate its Time and Impedance Multi-Sensor concept during 2022-2023. The proposed portable low-power imaging system has geotechnical, field-medical and manufacturing-inspection uses. The disclosure describes a validation objective, not a completed validation result or approved medical device.
Supports: Time and Impedance Multi-Sensor Imaging · technology readiness level
NRC IRAP records a $75,000 contribution to Canadian Space Mining Corporation to validate its Time and Impedance Multi-Sensor concept during 2022-2023. The proposed portable low-power imaging system has geotechnical, field-medical and manufacturing-inspection uses. The disclosure describes a validation objective, not a completed validation result or approved medical device.
Supports: Time and Impedance Multi-Sensor Imaging · core features
NRC IRAP records a $75,000 contribution to Canadian Space Mining Corporation to validate its Time and Impedance Multi-Sensor concept during 2022-2023. The proposed portable low-power imaging system has geotechnical, field-medical and manufacturing-inspection uses. The disclosure describes a validation objective, not a completed validation result or approved medical device.
Supports: Time and Impedance Multi-Sensor Imaging · core features
NRC IRAP records a $75,000 contribution to Canadian Space Mining Corporation to validate its Time and Impedance Multi-Sensor concept during 2022-2023. The proposed portable low-power imaging system has geotechnical, field-medical and manufacturing-inspection uses. The disclosure describes a validation objective, not a completed validation result or approved medical device.
Supports: Time and Impedance Multi-Sensor Imaging · capability type
NRC IRAP records a $75,000 contribution to Canadian Space Mining Corporation to validate its Time and Impedance Multi-Sensor concept during 2022-2023. The proposed portable low-power imaging system has geotechnical, field-medical and manufacturing-inspection uses. The disclosure describes a validation objective, not a completed validation result or approved medical device.
Supports: Time and Impedance Multi-Sensor Imaging · summary
NRC IRAP records a $75,000 contribution to Canadian Space Mining Corporation to validate its Time and Impedance Multi-Sensor concept during 2022-2023. The proposed portable low-power imaging system has geotechnical, field-medical and manufacturing-inspection uses. The disclosure describes a validation objective, not a completed validation result or approved medical device.
Supports: Time and Impedance Multi-Sensor Imaging · technical tags
NRC IRAP records a $75,000 contribution to Canadian Space Mining Corporation to validate its Time and Impedance Multi-Sensor concept during 2022-2023. The proposed portable low-power imaging system has geotechnical, field-medical and manufacturing-inspection uses. The disclosure describes a validation objective, not a completed validation result or approved medical device.
Supports: Time and Impedance Multi-Sensor Imaging · defence applications
NRC IRAP records a $75,000 contribution to Canadian Space Mining Corporation to validate its Time and Impedance Multi-Sensor concept during 2022-2023. The proposed portable low-power imaging system has geotechnical, field-medical and manufacturing-inspection uses. The disclosure describes a validation objective, not a completed validation result or approved medical device.
Supports: Time and Impedance Multi-Sensor Imaging · technical tags
NRC IRAP records a $75,000 contribution to Canadian Space Mining Corporation to validate its Time and Impedance Multi-Sensor concept during 2022-2023. The proposed portable low-power imaging system has geotechnical, field-medical and manufacturing-inspection uses. The disclosure describes a validation objective, not a completed validation result or approved medical device.
Supports: Time and Impedance Multi-Sensor Imaging · defence applications
NRC IRAP records a $75,000 contribution to Canadian Space Mining Corporation to validate its Time and Impedance Multi-Sensor concept during 2022-2023. The proposed portable low-power imaging system has geotechnical, field-medical and manufacturing-inspection uses. The disclosure describes a validation objective, not a completed validation result or approved medical device.
Supports: Time and Impedance Multi-Sensor Imaging · defence applications
NRC IRAP records a $75,000 contribution to Canadian Space Mining Corporation to validate its Time and Impedance Multi-Sensor concept during 2022-2023. The proposed portable low-power imaging system has geotechnical, field-medical and manufacturing-inspection uses. The disclosure describes a validation objective, not a completed validation result or approved medical device.
Supports: Time and Impedance Multi-Sensor Imaging · maturity
NRC IRAP records a $75,000 contribution to Canadian Space Mining Corporation to validate its Time and Impedance Multi-Sensor concept during 2022-2023. The proposed portable low-power imaging system has geotechnical, field-medical and manufacturing-inspection uses. The disclosure describes a validation objective, not a completed validation result or approved medical device.
Supports: Time and Impedance Multi-Sensor Imaging · core features
NRC IRAP records a $75,000 contribution to Canadian Space Mining Corporation to validate its Time and Impedance Multi-Sensor concept during 2022-2023. The proposed portable low-power imaging system has geotechnical, field-medical and manufacturing-inspection uses. The disclosure describes a validation objective, not a completed validation result or approved medical device.
Supports: Time and Impedance Multi-Sensor Imaging · technical tags
NRC IRAP records a $75,000 contribution to Canadian Space Mining Corporation to validate its Time and Impedance Multi-Sensor concept during 2022-2023. The proposed portable low-power imaging system has geotechnical, field-medical and manufacturing-inspection uses. The disclosure describes a validation objective, not a completed validation result or approved medical device.
Supports: Time and Impedance Multi-Sensor Imaging · commercial availability
NRC IRAP records a $75,000 contribution to Canadian Space Mining Corporation to validate its Time and Impedance Multi-Sensor concept during 2022-2023. The proposed portable low-power imaging system has geotechnical, field-medical and manufacturing-inspection uses. The disclosure describes a validation objective, not a completed validation result or approved medical device.
Supports: Time and Impedance Multi-Sensor Imaging · technicaldomainslugs
NRC IRAP records a $75,000 contribution to Canadian Space Mining Corporation to validate its Time and Impedance Multi-Sensor concept during 2022-2023. The proposed portable low-power imaging system has geotechnical, field-medical and manufacturing-inspection uses. The disclosure describes a validation objective, not a completed validation result or approved medical device.
Supports: Time and Impedance Multi-Sensor Imaging · name
NRC IRAP records a $75,000 contribution to Canadian Space Mining Corporation to validate its Time and Impedance Multi-Sensor concept during 2022-2023. The proposed portable low-power imaging system has geotechnical, field-medical and manufacturing-inspection uses. The disclosure describes a validation objective, not a completed validation result or approved medical device.
Supports: Time and Impedance Multi-Sensor Imaging · defence applications
NRC IRAP records a $75,000 contribution to Canadian Space Mining Corporation to validate its Time and Impedance Multi-Sensor concept during 2022-2023. The proposed portable low-power imaging system has geotechnical, field-medical and manufacturing-inspection uses. The disclosure describes a validation objective, not a completed validation result or approved medical device.
Supports: Time and Impedance Multi-Sensor Imaging · core features
NRC IRAP records a $75,000 contribution to Canadian Space Mining Corporation to validate its Time and Impedance Multi-Sensor concept during 2022-2023. The proposed portable low-power imaging system has geotechnical, field-medical and manufacturing-inspection uses. The disclosure describes a validation objective, not a completed validation result or approved medical device.
Supports: Time and Impedance Multi-Sensor Imaging · technicaldomainslugs
NRC IRAP records a $75,000 contribution to Canadian Space Mining Corporation to validate its Time and Impedance Multi-Sensor concept during 2022-2023. The proposed portable low-power imaging system has geotechnical, field-medical and manufacturing-inspection uses. The disclosure describes a validation objective, not a completed validation result or approved medical device.
SpaceQ reports that the Canada Investment Summit prospectus lists a US$178 million Micro-Modular Reactor Platform project from CSMC. This is a project capital-cost figure presented to prospective investors, not an award or completed fundraise. The C$247 million equivalent is the reporter’s conversion, and the cited row does not allocate capital among POLAR-1, ORCA-1 and JAY-1.
Supports: Profile · current activity as of
SpaceQ reports that the Canada Investment Summit prospectus lists a US$178 million Micro-Modular Reactor Platform project from CSMC. This is a project capital-cost figure presented to prospective investors, not an award or completed fundraise. The C$247 million equivalent is the reporter’s conversion, and the cited row does not allocate capital among POLAR-1, ORCA-1 and JAY-1.
Supports: HYDRO+ Lunar Resource Processing · core features
CSMC describes HYDRO+ as a prototype-stage gas-reduction system intended to release usable resources from metal oxides in lunar regolith and accommodate geological variation. The page does not provide reaction conditions, yield, throughput, power consumption or a completed lunar-environment validation result. Its rounded C$500,000 reference is superseded in precision by CSA’s exact C$499,647 award.
CSMC describes HYDRO+ as a prototype-stage gas-reduction system intended to release usable resources from metal oxides in lunar regolith and accommodate geological variation. The page does not provide reaction conditions, yield, throughput, power consumption or a completed lunar-environment validation result. Its rounded C$500,000 reference is superseded in precision by CSA’s exact C$499,647 award.
CSMC describes HYDRO+ as a prototype-stage gas-reduction system intended to release usable resources from metal oxides in lunar regolith and accommodate geological variation. The page does not provide reaction conditions, yield, throughput, power consumption or a completed lunar-environment validation result. Its rounded C$500,000 reference is superseded in precision by CSA’s exact C$499,647 award.
CSMC describes HYDRO+ as a prototype-stage gas-reduction system intended to release usable resources from metal oxides in lunar regolith and accommodate geological variation. The page does not provide reaction conditions, yield, throughput, power consumption or a completed lunar-environment validation result. Its rounded C$500,000 reference is superseded in precision by CSA’s exact C$499,647 award.
Supports: HYDRO+ Lunar Resource Processing · core features
CSMC describes HYDRO+ as a prototype-stage gas-reduction system intended to release usable resources from metal oxides in lunar regolith and accommodate geological variation. The page does not provide reaction conditions, yield, throughput, power consumption or a completed lunar-environment validation result. Its rounded C$500,000 reference is superseded in precision by CSA’s exact C$499,647 award.
CSMC describes HYDRO+ as a prototype-stage gas-reduction system intended to release usable resources from metal oxides in lunar regolith and accommodate geological variation. The page does not provide reaction conditions, yield, throughput, power consumption or a completed lunar-environment validation result. Its rounded C$500,000 reference is superseded in precision by CSA’s exact C$499,647 award.
CSMC describes HYDRO+ as a prototype-stage gas-reduction system intended to release usable resources from metal oxides in lunar regolith and accommodate geological variation. The page does not provide reaction conditions, yield, throughput, power consumption or a completed lunar-environment validation result. Its rounded C$500,000 reference is superseded in precision by CSA’s exact C$499,647 award.
CSMC describes HYDRO+ as a prototype-stage gas-reduction system intended to release usable resources from metal oxides in lunar regolith and accommodate geological variation. The page does not provide reaction conditions, yield, throughput, power consumption or a completed lunar-environment validation result. Its rounded C$500,000 reference is superseded in precision by CSA’s exact C$499,647 award.
CSMC reports two CSA-funded $500,000 lunar architecture studies: nuclear power and resource utilization. Its resource study links QASM surveying, HYDRO+ extraction and LunaPure purification as an intended system architecture. This establishes ongoing portfolio positioning and study scope, not an integrated deployed system.
CSMC reports two C$500,000 CSA studies: CSMC Nuclear for lunar power generation/distribution and CSMC Labs for lunar mining/resource utilization. Both have ten-month initial periods and an option for refined architecture analysis. The company links QASM surveying, HYDRO+ extraction and LunaPure purification within the resource concept.
CSMC reports two C$500,000 CSA studies: CSMC Nuclear for lunar power generation/distribution and CSMC Labs for lunar mining/resource utilization. Both have ten-month initial periods and an option for refined architecture analysis. The company links QASM surveying, HYDRO+ extraction and LunaPure purification within the resource concept.
CSMC reports two CSA-funded $500,000 lunar architecture studies: nuclear power and resource utilization. Its resource study links QASM surveying, HYDRO+ extraction and LunaPure purification as an intended system architecture. This establishes ongoing portfolio positioning and study scope, not an integrated deployed system.
CSMC reports two C$500,000 CSA studies: CSMC Nuclear for lunar power generation/distribution and CSMC Labs for lunar mining/resource utilization. Both have ten-month initial periods and an option for refined architecture analysis. The company links QASM surveying, HYDRO+ extraction and LunaPure purification within the resource concept.
Supports: LEUNR Micro-Nuclear Reactor · core features
The NRC project targets an unfuelled instrumentation-and-controls prototype, while CSMC's DND work also describes safety monitoring and thermal-hydraulics experimentation.
Supports: LEUNR Micro-Nuclear Reactor → Dual-use northern infrastructure and partnerships
The program describes collaboration with governments, Indigenous partners, communities, academia, industry, and allies, plus roads, runways, seaports, medical capacity, power generation, employment, training, and procurement benefits where feasible.
Supports: LunaPure Lunar Water Purification → Arctic operational reach and sustainment
The program identifies access and logistical constraints that limit faster, longer, and more effective Arctic operations and calls for hubs, nodes, transportation corridors, facilities, pre-positioned materiel, and multi-modal support.
Supports: POLAR-1 Terrestrial Microreactor → Arctic operational reach and sustainment
The program identifies access and logistical constraints that limit faster, longer, and more effective Arctic operations and calls for hubs, nodes, transportation corridors, facilities, pre-positioned materiel, and multi-modal support.
Supports: POLAR-1 Terrestrial Microreactor → Dual-use northern infrastructure and partnerships
The program describes collaboration with governments, Indigenous partners, communities, academia, industry, and allies, plus roads, runways, seaports, medical capacity, power generation, employment, training, and procurement benefits where feasible.
Supports: LEUNR Micro-Nuclear Reactor → Dual-use northern infrastructure and partnerships
The strategy states that northern infrastructure is stretched and insufficient for the scale and complexity of military, industrial, and civilian activity and requires climate-resilient, strategically located, dual-use investment.
Supports: LunaPure Lunar Water Purification → Arctic operational reach and sustainment
The Defence Industrial Strategy identifies northern infrastructure, telecommunications, energy, transportation, climate resilience, and Indigenous and territorial participation as necessary partners and enablers for Arctic security and industrial capability.
Supports: LunaPure Lunar Water Purification → Arctic operational reach and sustainment
The proposed after-state combines the existing hub-and-node operational outcome with the strategy's domestic-partner, industrial-resilience and northern-infrastructure context.
Supports: POLAR-1 Terrestrial Microreactor → Arctic operational reach and sustainment
The Defence Industrial Strategy identifies northern infrastructure, telecommunications, energy, transportation, climate resilience, and Indigenous and territorial participation as necessary partners and enablers for Arctic security and industrial capability.
Supports: POLAR-1 Terrestrial Microreactor → Arctic operational reach and sustainment
The proposed after-state combines the existing hub-and-node operational outcome with the strategy's domestic-partner, industrial-resilience and northern-infrastructure context.
Supports: POLAR-1 Terrestrial Microreactor → Sovereign defence capability areas
Canada needs secure strategic autonomy and reliable access to capabilities that are critical to defending its sovereignty and meeting allied commitments, while reducing exposure to foreign supply-chain and intellectual-property dependencies.
Supports: POLAR-1 Terrestrial Microreactor → Sovereign defence capability areas
Reviewer synthesis of the public end state: Canada can build, sustain or control priority aerospace, ammunition, digital, in-service support, sensor, space, specialized manufacturing, training and uncrewed capabilities through domestic strength, trusted partnerships and sovereign access.
Supports: POLAR-1 Terrestrial Microreactor → Dual-use northern infrastructure and partnerships
The strategy states that northern infrastructure is stretched and insufficient for the scale and complexity of military, industrial, and civilian activity and requires climate-resilient, strategically located, dual-use investment.
Supports: LunaPure Lunar Water Purification · technical tags
CSMC says LunaPure is intended to extract and purify water together, using solar energy to melt frozen water and removing lunar dust and other contaminants. The company describes use of the vacuum environment to reduce mechanical complexity, with future lunar-mission integration as a goal.
Supports: LunaPure Lunar Water Purification · summary
CSMC says LunaPure is intended to extract and purify water together, using solar energy to melt frozen water and removing lunar dust and other contaminants. The company describes use of the vacuum environment to reduce mechanical complexity, with future lunar-mission integration as a goal.
Supports: LunaPure Lunar Water Purification · core features
CSMC says LunaPure is intended to extract and purify water together, using solar energy to melt frozen water and removing lunar dust and other contaminants. The company describes use of the vacuum environment to reduce mechanical complexity, with future lunar-mission integration as a goal.
Supports: LunaPure Lunar Water Purification · technicaldomainslugs
CSMC says LunaPure is intended to extract and purify water together, using solar energy to melt frozen water and removing lunar dust and other contaminants. The company describes use of the vacuum environment to reduce mechanical complexity, with future lunar-mission integration as a goal.
Supports: LunaPure Lunar Water Purification · technical tags
CSMC says LunaPure is intended to extract and purify water together, using solar energy to melt frozen water and removing lunar dust and other contaminants. The company describes use of the vacuum environment to reduce mechanical complexity, with future lunar-mission integration as a goal.
Supports: LunaPure Lunar Water Purification · core features
CSMC says LunaPure is intended to extract and purify water together, using solar energy to melt frozen water and removing lunar dust and other contaminants. The company describes use of the vacuum environment to reduce mechanical complexity, with future lunar-mission integration as a goal.
Supports: LunaPure Lunar Water Purification · technical tags
CSMC says LunaPure is intended to extract and purify water together, using solar energy to melt frozen water and removing lunar dust and other contaminants. The company describes use of the vacuum environment to reduce mechanical complexity, with future lunar-mission integration as a goal.
Supports: LunaPure Lunar Water Purification · technicaldomainslugs
CSMC says LunaPure is intended to extract and purify water together, using solar energy to melt frozen water and removing lunar dust and other contaminants. The company describes use of the vacuum environment to reduce mechanical complexity, with future lunar-mission integration as a goal.
Supports: LunaPure Lunar Water Purification · core features
CSMC says LunaPure is intended to extract and purify water together, using solar energy to melt frozen water and removing lunar dust and other contaminants. The company describes use of the vacuum environment to reduce mechanical complexity, with future lunar-mission integration as a goal.
Supports: LunaPure Lunar Water Purification · technical tags
CSMC says LunaPure is intended to extract and purify water together, using solar energy to melt frozen water and removing lunar dust and other contaminants. The company describes use of the vacuum environment to reduce mechanical complexity, with future lunar-mission integration as a goal.
Supports: LunaPure Lunar Water Purification · summary
The Canadian Space Agency identifies LunaPure as the Aqualunar grand-prize-winning, self-contained and low-maintenance system for purifying water from lunar polar regions.
Supports: LunaPure Lunar Water Purification → Arctic operational reach and sustainment
The Canadian Space Agency identifies LunaPure as the Aqualunar grand-prize-winning, self-contained and low-maintenance system for purifying water from lunar polar regions.
Supports: LunaPure Lunar Water Purification → Arctic operational reach and sustainment
The first-location announcement says scalable infrastructure and logistical stations should extend operational reach, reduce constraints, enable rapid activation, and sustain greater year-round military presence in the Arctic.
Supports: POLAR-1 Terrestrial Microreactor → Arctic operational reach and sustainment
The first-location announcement says scalable infrastructure and logistical stations should extend operational reach, reduce constraints, enable rapid activation, and sustain greater year-round military presence in the Arctic.
CSMC patent application WO2025073060A1 describes combining gravity-related measurements with optional magnetic or other structural data to generate subsurface maps through gravity inversion. Its examples include quantum gravimeters, spaced precision clocks and data processing; the disclosure supplies conceptual architecture, not demonstrated orbital resource-detection performance.
CSMC patent application WO2025073060A1 describes combining gravity-related measurements with optional magnetic or other structural data to generate subsurface maps through gravity inversion. Its examples include quantum gravimeters, spaced precision clocks and data processing; the disclosure supplies conceptual architecture, not demonstrated orbital resource-detection performance.
CSMC patent application WO2025073060A1 describes combining gravity-related measurements with optional magnetic or other structural data to generate subsurface maps through gravity inversion. Its examples include quantum gravimeters, spaced precision clocks and data processing; the disclosure supplies conceptual architecture, not demonstrated orbital resource-detection performance.
Supports: QASM Quantum Atomic Subsurface Mapper · core features
CSMC patent application WO2025073060A1 describes combining gravity-related measurements with optional magnetic or other structural data to generate subsurface maps through gravity inversion. Its examples include quantum gravimeters, spaced precision clocks and data processing; the disclosure supplies conceptual architecture, not demonstrated orbital resource-detection performance.
Supports: QASM Quantum Atomic Subsurface Mapper · core features
CSMC patent application WO2025073060A1 describes combining gravity-related measurements with optional magnetic or other structural data to generate subsurface maps through gravity inversion. Its examples include quantum gravimeters, spaced precision clocks and data processing; the disclosure supplies conceptual architecture, not demonstrated orbital resource-detection performance.
CSMC patent application WO2025073060A1 describes combining gravity-related measurements with optional magnetic or other structural data to generate subsurface maps through gravity inversion. Its examples include quantum gravimeters, spaced precision clocks and data processing; the disclosure supplies conceptual architecture, not demonstrated orbital resource-detection performance.
CSMC patent application WO2025073060A1 describes combining gravity-related measurements with optional magnetic or other structural data to generate subsurface maps through gravity inversion. Its examples include quantum gravimeters, spaced precision clocks and data processing; the disclosure supplies conceptual architecture, not demonstrated orbital resource-detection performance.
CSMC patent application WO2025073060A1 describes combining gravity-related measurements with optional magnetic or other structural data to generate subsurface maps through gravity inversion. Its examples include quantum gravimeters, spaced precision clocks and data processing; the disclosure supplies conceptual architecture, not demonstrated orbital resource-detection performance.
CSMC patent application WO2025073060A1 describes combining gravity-related measurements with optional magnetic or other structural data to generate subsurface maps through gravity inversion. Its examples include quantum gravimeters, spaced precision clocks and data processing; the disclosure supplies conceptual architecture, not demonstrated orbital resource-detection performance.
CSMC patent application WO2025073060A1 describes combining gravity-related measurements with optional magnetic or other structural data to generate subsurface maps through gravity inversion. Its examples include quantum gravimeters, spaced precision clocks and data processing; the disclosure supplies conceptual architecture, not demonstrated orbital resource-detection performance.
NRCan describes GEM-GeoNorth as providing public geological knowledge about Canada’s North, its mineral and energy potential, and information for sustainable land use and infrastructure planning. This establishes a northern geoscience use context; it does not specify a requirement for QASM or establish defence customer interest.
Supports: Time and Impedance Multi-Sensor Imaging · defence applications
NRC IRAP agreement 994139 records a C$75,000 contribution to CSMC from August 15, 2022 to June 30, 2023 for validation of a low-power portable imaging concept spanning geotechnical critical-mineral detection, field medical tomography and manufacturing defect detection. The record states objectives, not completed test results.
Supports: Time and Impedance Multi-Sensor Imaging · capability type
NRC IRAP agreement 994139 records a C$75,000 contribution to CSMC from August 15, 2022 to June 30, 2023 for validation of a low-power portable imaging concept spanning geotechnical critical-mineral detection, field medical tomography and manufacturing defect detection. The record states objectives, not completed test results.
Supports: Time and Impedance Multi-Sensor Imaging · defence applications
NRC IRAP agreement 994139 records a C$75,000 contribution to CSMC from August 15, 2022 to June 30, 2023 for validation of a low-power portable imaging concept spanning geotechnical critical-mineral detection, field medical tomography and manufacturing defect detection. The record states objectives, not completed test results.
Supports: Time and Impedance Multi-Sensor Imaging · summary
NRC IRAP agreement 994139 records a C$75,000 contribution to CSMC from August 15, 2022 to June 30, 2023 for validation of a low-power portable imaging concept spanning geotechnical critical-mineral detection, field medical tomography and manufacturing defect detection. The record states objectives, not completed test results.
Supports: Time and Impedance Multi-Sensor Imaging · summary
The NRC IRAP record describes a low-power, inexpensive and man-portable multi-sensor imaging concept with geotechnical, medical-tomography and advanced-manufacturing inspection applications.
Supports: Time and Impedance Multi-Sensor Imaging · name
NRC IRAP agreement 994139 records a C$75,000 contribution to CSMC from August 15, 2022 to June 30, 2023 for validation of a low-power portable imaging concept spanning geotechnical critical-mineral detection, field medical tomography and manufacturing defect detection. The record states objectives, not completed test results.
Supports: Time and Impedance Multi-Sensor Imaging · defence applications
NRC IRAP agreement 994139 records a C$75,000 contribution to CSMC from August 15, 2022 to June 30, 2023 for validation of a low-power portable imaging concept spanning geotechnical critical-mineral detection, field medical tomography and manufacturing defect detection. The record states objectives, not completed test results.
Supports: Time and Impedance Multi-Sensor Imaging · defence applications
NRC IRAP agreement 994139 records a C$75,000 contribution to CSMC from August 15, 2022 to June 30, 2023 for validation of a low-power portable imaging concept spanning geotechnical critical-mineral detection, field medical tomography and manufacturing defect detection. The record states objectives, not completed test results.
Supports: Time and Impedance Multi-Sensor Imaging · core features
NRC IRAP agreement 994139 records a C$75,000 contribution to CSMC from August 15, 2022 to June 30, 2023 for validation of a low-power portable imaging concept spanning geotechnical critical-mineral detection, field medical tomography and manufacturing defect detection. The record states objectives, not completed test results.
Supports: Time and Impedance Multi-Sensor Imaging · maturity
NRC IRAP agreement 994139 records a C$75,000 contribution to CSMC from August 15, 2022 to June 30, 2023 for validation of a low-power portable imaging concept spanning geotechnical critical-mineral detection, field medical tomography and manufacturing defect detection. The record states objectives, not completed test results.
NRC IRAP agreement 994139 records a C$75,000 contribution to CSMC from August 15, 2022 to June 30, 2023 for validation of a low-power portable imaging concept spanning geotechnical critical-mineral detection, field medical tomography and manufacturing defect detection. The record states objectives, not completed test results.
NRC IRAP agreement 994139 records a C$75,000 contribution to CSMC from August 15, 2022 to June 30, 2023 for validation of a low-power portable imaging concept spanning geotechnical critical-mineral detection, field medical tomography and manufacturing defect detection. The record states objectives, not completed test results.
NRC IRAP agreement 994139 records a C$75,000 contribution to CSMC from August 15, 2022 to June 30, 2023 for validation of a low-power portable imaging concept spanning geotechnical critical-mineral detection, field medical tomography and manufacturing defect detection. The record states objectives, not completed test results.
NRC IRAP agreement 994139 records a C$75,000 contribution to CSMC from August 15, 2022 to June 30, 2023 for validation of a low-power portable imaging concept spanning geotechnical critical-mineral detection, field medical tomography and manufacturing defect detection. The record states objectives, not completed test results.
NRC IRAP agreement 994139 records a C$75,000 contribution to CSMC from August 15, 2022 to June 30, 2023 for validation of a low-power portable imaging concept spanning geotechnical critical-mineral detection, field medical tomography and manufacturing defect detection. The record states objectives, not completed test results.
NRC IRAP agreement 994139 records a C$75,000 contribution to CSMC from August 15, 2022 to June 30, 2023 for validation of a low-power portable imaging concept spanning geotechnical critical-mineral detection, field medical tomography and manufacturing defect detection. The record states objectives, not completed test results.
NRC IRAP agreement 994139 records a C$75,000 contribution to CSMC from August 15, 2022 to June 30, 2023 for validation of a low-power portable imaging concept spanning geotechnical critical-mineral detection, field medical tomography and manufacturing defect detection. The record states objectives, not completed test results.
NRC IRAP agreement 994139 records a C$75,000 contribution to CSMC from August 15, 2022 to June 30, 2023 for validation of a low-power portable imaging concept spanning geotechnical critical-mineral detection, field medical tomography and manufacturing defect detection. The record states objectives, not completed test results.
NRC IRAP agreement 994139 records a C$75,000 contribution to CSMC from August 15, 2022 to June 30, 2023 for validation of a low-power portable imaging concept spanning geotechnical critical-mineral detection, field medical tomography and manufacturing defect detection. The record states objectives, not completed test results.
Supports: NRC IRAP TIMS Validation Project · canonical program
CSA announced four lunar infrastructure study contracts totalling C$2 million across three Canadian companies, including CSMC, for regolith management and surface power. The studies run ten months with a possible six-month extension. The government page does not allocate all C$2 million to CSMC.
CSA announced four lunar infrastructure study contracts totalling C$2 million across three Canadian companies, including CSMC, for regolith management and surface power. The studies run ten months with a possible six-month extension. The government page does not allocate all C$2 million to CSMC.
CSA announced four lunar infrastructure study contracts totalling C$2 million across three Canadian companies, including CSMC, for regolith management and surface power. The studies run ten months with a possible six-month extension. The government page does not allocate all C$2 million to CSMC.
CSA announced four lunar infrastructure study contracts totalling C$2 million across three Canadian companies, including CSMC, for regolith management and surface power. The studies run ten months with a possible six-month extension. The government page does not allocate all C$2 million to CSMC.
CSA announced four lunar infrastructure study contracts totalling C$2 million across three Canadian companies, including CSMC, for regolith management and surface power. The studies run ten months with a possible six-month extension. The government page does not allocate all C$2 million to CSMC.
CSA announced four lunar infrastructure study contracts totalling C$2 million across three Canadian companies, including CSMC, for regolith management and surface power. The studies run ten months with a possible six-month extension. The government page does not allocate all C$2 million to CSMC.
CSMC is one of three Canadian companies receiving four CSA contracts totalling $2 million for ten-month lunar regolith-management and surface-power architecture studies.
CSA announced four lunar infrastructure study contracts totalling C$2 million across three Canadian companies, including CSMC, for regolith management and surface power. The studies run ten months with a possible six-month extension. The government page does not allocate all C$2 million to CSMC.
Supports: CSA Lunar Architecture Studies · canonical program
CSMC is one of three Canadian companies receiving four CSA contracts totalling $2 million for ten-month lunar regolith-management and surface-power architecture studies.
The Canadian Space Agency records a $1 million advanced-technology contribution for the LEUNR non-fuel prototype and space micro modular reactor development.
Supports: CSA STDP LEUNR Prototype Project · canonical program
The Canadian Space Agency records a $1 million advanced-technology contribution for the LEUNR non-fuel prototype and space micro modular reactor development.
NRC IRAP records a CAD 324,000 contribution to Canadian Strategic Missions Corporation under agreement 1034602, covering August 1, 2025 to April 30, 2026 and amended March 4, 2026. The stated project sought an unfuelled LEUNR instrumentation-and-controls prototype by February 2026, on a then-planned path to a fueled demonstrator in 2029. It reports objectives, not completion, and does not allocate work to POLAR-1, ORCA-1 or JAY-1.
NRC IRAP records a CAD 324,000 contribution to Canadian Strategic Missions Corporation under agreement 1034602, covering August 1, 2025 to April 30, 2026 and amended March 4, 2026. The stated project sought an unfuelled LEUNR instrumentation-and-controls prototype by February 2026, on a then-planned path to a fueled demonstrator in 2029. It reports objectives, not completion, and does not allocate work to POLAR-1, ORCA-1 or JAY-1.
NRC IRAP records a CAD 324,000 contribution to Canadian Strategic Missions Corporation under agreement 1034602, covering August 1, 2025 to April 30, 2026 and amended March 4, 2026. The stated project sought an unfuelled LEUNR instrumentation-and-controls prototype by February 2026, on a then-planned path to a fueled demonstrator in 2029. It reports objectives, not completion, and does not allocate work to POLAR-1, ORCA-1 or JAY-1.
NRC IRAP records a CAD 324,000 contribution to Canadian Strategic Missions Corporation under agreement 1034602, covering August 1, 2025 to April 30, 2026 and amended March 4, 2026. The stated project sought an unfuelled LEUNR instrumentation-and-controls prototype by February 2026, on a then-planned path to a fueled demonstrator in 2029. It reports objectives, not completion, and does not allocate work to POLAR-1, ORCA-1 or JAY-1.
NRC IRAP records a CAD 324,000 contribution to Canadian Strategic Missions Corporation under agreement 1034602, covering August 1, 2025 to April 30, 2026 and amended March 4, 2026. The stated project sought an unfuelled LEUNR instrumentation-and-controls prototype by February 2026, on a then-planned path to a fueled demonstrator in 2029. It reports objectives, not completion, and does not allocate work to POLAR-1, ORCA-1 or JAY-1.
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.
