KorrAI is a Halifax geospatial-risk company combining satellite interferometric radar, ground sensors and AI-assisted analysis for wide-area infrastructure, terrain and ground-motion assessment.
Operating context
KorrAI's northern-infrastructure case gives a usable monitoring cadence beneath the broader near-real-time language: it reports ground-deformation assessments every 12 days, using InSAR imagery, GNSS calibration and hazard grading. The described footprint covers 12,000 square kilometres, three airports and 250 kilometres of road. CSA independently lists the OGMS permafrost-resilience development project, but its listing is not an acceptance report. A separate customer-side reference is Aventis Energy's July 2025 agreement to use TRAIL for Corvo uranium exploration, combining hyperspectral imagery, satellite datasets and terrain models. That work is scoped through individual statements of work and an estimated $49,032 programme cost plus taxes. These sources demonstrate distinct infrastructure-monitoring and exploration applications without establishing continuous surveillance or successful mineral discovery.
Canadian footprint
KorrAI has a documented Canadian operating presence in Halifax, Nova Scotia.
Halifax, Nova Scotia is the published city-level context for KorrAI. It does not imply a street address or exact facility location.
A Nova Scotia geospatial risk supplier with quantified periodic permafrost monitoring and a customer-documented TRAIL exploration agreement, where cadence, validation and contract scope matter more than broad real-time claims.
Interpretation of the public record. Not qualification, endorsement or evidence of buyer interest.
Satellite InSAR monitoring and risk-intelligence platform
Read technical summary
KorrAI combines persistent-scatterer satellite InSAR, GNSS calibration and corner reflectors with TRAIL, a workspace for infrastructure and mine-site risk evidence. TRAIL links spatial layers, design records, inspections and source-cited reasoning rather than treating displacement alone as a structural diagnosis. Public C-band imagery and finer tasked X-band scenes serve different asset scales. Monitoring cadence follows available acquisitions, while millimetre displacement claims depend on calibration and site conditions.
Evidence of maturity
Commercially presented monitoring and evidence workflows with CSA-supported northern permafrost infrastructure development. The pyStaMPS comparison establishes an author-reported algorithm benchmark, not independent validation of all TRAIL conclusions.
Commercial availability
Engagement is available for site monitoring and risk-evidence workflows. Confirm acquisition cadence, GNSS/control requirements, asset resolution and engineering review; InSAR alone does not establish design tolerance or failure mode.
Core features
Persistent-scatterer UrbanSAR calibrated with GNSS and corner reflectors
TRAIL combines spatial layers, documents, inspections and cited reasoning
Public C-band archives and tasked X-band asset-scale detail
Open-source pyStaMPS with author-reported StaMPS comparison
The Canadian Space Agency lists KorrAI Technologies Ltd. for an Open Ground Motion Service focused on permafrost and northern critical-infrastructure resilience; this program evidence is distinct from commercial adoption claims.
Reviewed connections
Mission area · Reviewed connectionEvidence strength: High
Satellite deformation monitoring and permafrost-risk analysis could support awareness of northern infrastructure condition; the mapping is source-aligned but does not establish a defence deployment.
Automated time-series processing and risk alerts could support persistent monitoring of remote sites, subject to sensor availability and operational validation.
Reviewed connections indicate possible relevance based on public evidence. They do not indicate procurement direction, eligibility, endorsement or customer interest.
Questions for a first conversation
01
What current revisit latency, validation error and customer-accepted outputs apply to the specific infrastructure or exploration deployment?
The case study states a 12-day assessment cycle and company-reported scale; CSA describes development objectives. Aventis specifies a paid work programme but does not report an accepted outcome or discovery success.
Original sources 10 linked records
These records support the organization, its owned capabilities and their reviewed connections. A source count is not a count of independent confirmations.
The case study says OGMS uses Sentinel1/RCM InSAR, UrbanSAR reflectors, GNSS calibration and hazard grading. It reports12-day assessments across12,000sqkm,3airports and250kmroads. General near-real-time language must be read alongside that explicit cadence. It provides a book-a-meeting/contact route; date11/7/2025 is ambiguous.
The case study says OGMS uses Sentinel1/RCM InSAR, UrbanSAR reflectors, GNSS calibration and hazard grading. It reports12-day assessments across12,000sqkm,3airports and250kmroads. General near-real-time language must be read alongside that explicit cadence. It provides a book-a-meeting/contact route; date11/7/2025 is ambiguous.
Supports: Profile · operating context
The case study says OGMS uses Sentinel1/RCM InSAR, UrbanSAR reflectors, GNSS calibration and hazard grading. It reports12-day assessments across12,000sqkm,3airports and250kmroads. General near-real-time language must be read alongside that explicit cadence. It provides a book-a-meeting/contact route; date11/7/2025 is ambiguous.
Supports: Profile · executive relevance summary
Source location: executiveRelevanceSummary
The case study says OGMS uses Sentinel1/RCM InSAR, UrbanSAR reflectors, GNSS calibration and hazard grading. It reports12-day assessments across12,000sqkm,3airports and250kmroads. General near-real-time language must be read alongside that explicit cadence. It provides a book-a-meeting/contact route; date11/7/2025 is ambiguous.
The case study says OGMS uses Sentinel1/RCM InSAR, UrbanSAR reflectors, GNSS calibration and hazard grading. It reports12-day assessments across12,000sqkm,3airports and250kmroads. General near-real-time language must be read alongside that explicit cadence. It provides a book-a-meeting/contact route; date11/7/2025 is ambiguous.
The case study says OGMS uses Sentinel1/RCM InSAR, UrbanSAR reflectors, GNSS calibration and hazard grading. It reports12-day assessments across12,000sqkm,3airports and250kmroads. General near-real-time language must be read alongside that explicit cadence. It provides a book-a-meeting/contact route; date11/7/2025 is ambiguous.
KorrAI is a Halifax geospatial-risk company combining satellite interferometric radar, ground sensors and AI-assisted analysis for wide-area infrastructure, terrain and ground-motion assessment.
Supports: Profile · editorial profile version
KorrAI has sufficient mapped public evidence for private reviewer consideration of the shared editorial profile template.
Supports: Profile · description
KorrAI is a Halifax geospatial-risk company combining satellite interferometric radar, ground sensors and AI-assisted analysis for wide-area infrastructure, terrain and ground-motion assessment.
KorrAI's public evidence establishes its current role and offering, but it does not answer every access, configuration, eligibility, maturity or buyer question needed for a first business-development conversation.
CSA lists Nova Scotia KorrAI Technologies Ltd for an OGMS platform addressing permafrost thaw and airport/critical infrastructure resilience. The entry describes a development objective, not acceptance or a military contract.
Supports: Profile · operating context
CSA lists Nova Scotia KorrAI Technologies Ltd for an OGMS platform addressing permafrost thaw and airport/critical infrastructure resilience. The entry describes a development objective, not acceptance or a military contract.
July 10, 2025 release reports July 9 agreement to apply TRAIL to Corvo uranium exploration using hyperspectral imagery, satellites and terrain models. Services use individual statements of work, estimated program cost$49,032 plus taxes; either party may terminate after an existing statement is completed. It does not report discovery success.
True North Map classifies the legacy undated product description as operating context rather than a material current development, so the optional Recent Activity field is cleared.
KorrAI's platform combines satellite InSAR, optical imagery, GNSS observations, site records and risk models to monitor ground deformation and assemble traceable infrastructure-risk assessments.
Satellite deformation monitoring and permafrost-risk analysis could support awareness of northern infrastructure condition; the mapping is source-aligned but does not establish a defence deployment.
Supports: Profile · operating context
The Canadian Space Agency lists KorrAI Technologies Ltd. for an Open Ground Motion Service focused on permafrost and northern critical-infrastructure resilience; this program evidence is distinct from commercial adoption claims.
CSA lists Nova Scotia KorrAI Technologies Ltd for an OGMS platform addressing permafrost thaw and airport/critical infrastructure resilience. The entry describes a development objective, not acceptance or a military contract.
CSA lists Nova Scotia KorrAI Technologies Ltd for an OGMS platform addressing permafrost thaw and airport/critical infrastructure resilience. The entry describes a development objective, not acceptance or a military contract.
Supports: Profile · current activity
The Canadian Space Agency's smartEarth portfolio lists KorrAI developing a Web-based Open Ground Motion Service for near-real-time permafrost-related infrastructure monitoring, while its current platform continues to combine InSAR, GNSS and multi-source risk evidence.
CSA lists Nova Scotia KorrAI Technologies Ltd for an OGMS platform addressing permafrost thaw and airport/critical infrastructure resilience. The entry describes a development objective, not acceptance or a military contract.
CSA lists Nova Scotia KorrAI Technologies Ltd for an OGMS platform addressing permafrost thaw and airport/critical infrastructure resilience. The entry describes a development objective, not acceptance or a military contract.
Supports: Profile · profileData.currentActivity
The Canadian Space Agency's smartEarth portfolio lists KorrAI developing a Web-based Open Ground Motion Service for near-real-time permafrost-related infrastructure monitoring, while its current platform continues to combine InSAR, GNSS and multi-source risk evidence.
CSA lists KorrAI Open Ground Motion Service development for permafrost-related infrastructure and airport resilience in northern Canada; this is an R&D application, not proof of certified engineering decisions.
The Canadian Space Agency lists KorrAI Technologies Ltd. for an Open Ground Motion Service focused on permafrost and northern critical-infrastructure resilience; this program evidence is distinct from commercial adoption claims.
July 10, 2025 release reports July 9 agreement to apply TRAIL to Corvo uranium exploration using hyperspectral imagery, satellites and terrain models. Services use individual statements of work, estimated program cost$49,032 plus taxes; either party may terminate after an existing statement is completed. It does not report discovery success.
Supports: Profile · executive relevance summary
Source location: executiveRelevanceSummary
July 10, 2025 release reports July 9 agreement to apply TRAIL to Corvo uranium exploration using hyperspectral imagery, satellites and terrain models. Services use individual statements of work, estimated program cost$49,032 plus taxes; either party may terminate after an existing statement is completed. It does not report discovery success.
July 10, 2025 release reports July 9 agreement to apply TRAIL to Corvo uranium exploration using hyperspectral imagery, satellites and terrain models. Services use individual statements of work, estimated program cost$49,032 plus taxes; either party may terminate after an existing statement is completed. It does not report discovery success.
July 10, 2025 release reports July 9 agreement to apply TRAIL to Corvo uranium exploration using hyperspectral imagery, satellites and terrain models. Services use individual statements of work, estimated program cost$49,032 plus taxes; either party may terminate after an existing statement is completed. It does not report discovery success.
July 10, 2025 release reports July 9 agreement to apply TRAIL to Corvo uranium exploration using hyperspectral imagery, satellites and terrain models. Services use individual statements of work, estimated program cost$49,032 plus taxes; either party may terminate after an existing statement is completed. It does not report discovery success.
Supports: TRAIL satellite-InSAR risk intelligence · core features
KorrAI ground deformation combines persistent-scatterer UrbanSAR, GNSS and corner reflectors for absolute calibration and TRAIL contextual interpretation. Its page distinguishes 10 m C-band cells from tasked 0.5 m X-band detail, retains satellite-limited cadence and explicitly states InSAR alone cannot establish design tolerance or failure mode.
KorrAI ground deformation combines persistent-scatterer UrbanSAR, GNSS and corner reflectors for absolute calibration and TRAIL contextual interpretation. Its page distinguishes 10 m C-band cells from tasked 0.5 m X-band detail, retains satellite-limited cadence and explicitly states InSAR alone cannot establish design tolerance or failure mode.
KorrAI ground deformation combines persistent-scatterer UrbanSAR, GNSS and corner reflectors for absolute calibration and TRAIL contextual interpretation. Its page distinguishes 10 m C-band cells from tasked 0.5 m X-band detail, retains satellite-limited cadence and explicitly states InSAR alone cannot establish design tolerance or failure mode.
KorrAI ground deformation combines persistent-scatterer UrbanSAR, GNSS and corner reflectors for absolute calibration and TRAIL contextual interpretation. Its page distinguishes 10 m C-band cells from tasked 0.5 m X-band detail, retains satellite-limited cadence and explicitly states InSAR alone cannot establish design tolerance or failure mode.
KorrAI ground deformation combines persistent-scatterer UrbanSAR, GNSS and corner reflectors for absolute calibration and TRAIL contextual interpretation. Its page distinguishes 10 m C-band cells from tasked 0.5 m X-band detail, retains satellite-limited cadence and explicitly states InSAR alone cannot establish design tolerance or failure mode.
KorrAI ground deformation combines persistent-scatterer UrbanSAR, GNSS and corner reflectors for absolute calibration and TRAIL contextual interpretation. Its page distinguishes 10 m C-band cells from tasked 0.5 m X-band detail, retains satellite-limited cadence and explicitly states InSAR alone cannot establish design tolerance or failure mode.
KorrAI ground deformation combines persistent-scatterer UrbanSAR, GNSS and corner reflectors for absolute calibration and TRAIL contextual interpretation. Its page distinguishes 10 m C-band cells from tasked 0.5 m X-band detail, retains satellite-limited cadence and explicitly states InSAR alone cannot establish design tolerance or failure mode.
KorrAI ground deformation combines persistent-scatterer UrbanSAR, GNSS and corner reflectors for absolute calibration and TRAIL contextual interpretation. Its page distinguishes 10 m C-band cells from tasked 0.5 m X-band detail, retains satellite-limited cadence and explicitly states InSAR alone cannot establish design tolerance or failure mode.
Supports: TRAIL satellite-InSAR risk intelligence · name
KorrAI ground deformation combines persistent-scatterer UrbanSAR, GNSS and corner reflectors for absolute calibration and TRAIL contextual interpretation. Its page distinguishes 10 m C-band cells from tasked 0.5 m X-band detail, retains satellite-limited cadence and explicitly states InSAR alone cannot establish design tolerance or failure mode.
KorrAI ground deformation combines persistent-scatterer UrbanSAR, GNSS and corner reflectors for absolute calibration and TRAIL contextual interpretation. Its page distinguishes 10 m C-band cells from tasked 0.5 m X-band detail, retains satellite-limited cadence and explicitly states InSAR alone cannot establish design tolerance or failure mode.
KorrAI ground deformation combines persistent-scatterer UrbanSAR, GNSS and corner reflectors for absolute calibration and TRAIL contextual interpretation. Its page distinguishes 10 m C-band cells from tasked 0.5 m X-band detail, retains satellite-limited cadence and explicitly states InSAR alone cannot establish design tolerance or failure mode.
KorrAI ground deformation combines persistent-scatterer UrbanSAR, GNSS and corner reflectors for absolute calibration and TRAIL contextual interpretation. Its page distinguishes 10 m C-band cells from tasked 0.5 m X-band detail, retains satellite-limited cadence and explicitly states InSAR alone cannot establish design tolerance or failure mode.
KorrAI ground deformation combines persistent-scatterer UrbanSAR, GNSS and corner reflectors for absolute calibration and TRAIL contextual interpretation. Its page distinguishes 10 m C-band cells from tasked 0.5 m X-band detail, retains satellite-limited cadence and explicitly states InSAR alone cannot establish design tolerance or failure mode.
KorrAI ground deformation combines persistent-scatterer UrbanSAR, GNSS and corner reflectors for absolute calibration and TRAIL contextual interpretation. Its page distinguishes 10 m C-band cells from tasked 0.5 m X-band detail, retains satellite-limited cadence and explicitly states InSAR alone cannot establish design tolerance or failure mode.
KorrAI ground deformation combines persistent-scatterer UrbanSAR, GNSS and corner reflectors for absolute calibration and TRAIL contextual interpretation. Its page distinguishes 10 m C-band cells from tasked 0.5 m X-band detail, retains satellite-limited cadence and explicitly states InSAR alone cannot establish design tolerance or failure mode.
KorrAI ground deformation combines persistent-scatterer UrbanSAR, GNSS and corner reflectors for absolute calibration and TRAIL contextual interpretation. Its page distinguishes 10 m C-band cells from tasked 0.5 m X-band detail, retains satellite-limited cadence and explicitly states InSAR alone cannot establish design tolerance or failure mode.
Supports: TRAIL satellite-InSAR risk intelligence · capability type
KorrAI ground deformation combines persistent-scatterer UrbanSAR, GNSS and corner reflectors for absolute calibration and TRAIL contextual interpretation. Its page distinguishes 10 m C-band cells from tasked 0.5 m X-band detail, retains satellite-limited cadence and explicitly states InSAR alone cannot establish design tolerance or failure mode.
Supports: TRAIL satellite-InSAR risk intelligence · core features
KorrAI ground deformation combines persistent-scatterer UrbanSAR, GNSS and corner reflectors for absolute calibration and TRAIL contextual interpretation. Its page distinguishes 10 m C-band cells from tasked 0.5 m X-band detail, retains satellite-limited cadence and explicitly states InSAR alone cannot establish design tolerance or failure mode.
KorrAI ground deformation combines persistent-scatterer UrbanSAR, GNSS and corner reflectors for absolute calibration and TRAIL contextual interpretation. Its page distinguishes 10 m C-band cells from tasked 0.5 m X-band detail, retains satellite-limited cadence and explicitly states InSAR alone cannot establish design tolerance or failure mode.
KorrAI ground deformation combines persistent-scatterer UrbanSAR, GNSS and corner reflectors for absolute calibration and TRAIL contextual interpretation. Its page distinguishes 10 m C-band cells from tasked 0.5 m X-band detail, retains satellite-limited cadence and explicitly states InSAR alone cannot establish design tolerance or failure mode.
KorrAI ground deformation combines persistent-scatterer UrbanSAR, GNSS and corner reflectors for absolute calibration and TRAIL contextual interpretation. Its page distinguishes 10 m C-band cells from tasked 0.5 m X-band detail, retains satellite-limited cadence and explicitly states InSAR alone cannot establish design tolerance or failure mode.
KorrAI ground deformation combines persistent-scatterer UrbanSAR, GNSS and corner reflectors for absolute calibration and TRAIL contextual interpretation. Its page distinguishes 10 m C-band cells from tasked 0.5 m X-band detail, retains satellite-limited cadence and explicitly states InSAR alone cannot establish design tolerance or failure mode.
KorrAI ground deformation combines persistent-scatterer UrbanSAR, GNSS and corner reflectors for absolute calibration and TRAIL contextual interpretation. Its page distinguishes 10 m C-band cells from tasked 0.5 m X-band detail, retains satellite-limited cadence and explicitly states InSAR alone cannot establish design tolerance or failure mode.
Supports: TRAIL satellite-InSAR risk intelligence → Autonomous Patrol and Monitoring
KorrAI ground deformation combines persistent-scatterer UrbanSAR, GNSS and corner reflectors for absolute calibration and TRAIL contextual interpretation. Its page distinguishes 10 m C-band cells from tasked 0.5 m X-band detail, retains satellite-limited cadence and explicitly states InSAR alone cannot establish design tolerance or failure mode.
Supports: TRAIL satellite-InSAR risk intelligence → Autonomous Patrol and Monitoring
KorrAI ground deformation combines persistent-scatterer UrbanSAR, GNSS and corner reflectors for absolute calibration and TRAIL contextual interpretation. Its page distinguishes 10 m C-band cells from tasked 0.5 m X-band detail, retains satellite-limited cadence and explicitly states InSAR alone cannot establish design tolerance or failure mode.
Supports: TRAIL satellite-InSAR risk intelligence → Autonomous Patrol and Monitoring
KorrAI ground deformation combines persistent-scatterer UrbanSAR, GNSS and corner reflectors for absolute calibration and TRAIL contextual interpretation. Its page distinguishes 10 m C-band cells from tasked 0.5 m X-band detail, retains satellite-limited cadence and explicitly states InSAR alone cannot establish design tolerance or failure mode.
Supports: TRAIL satellite-InSAR risk intelligence → Autonomous Patrol and Monitoring
KorrAI ground deformation combines persistent-scatterer UrbanSAR, GNSS and corner reflectors for absolute calibration and TRAIL contextual interpretation. Its page distinguishes 10 m C-band cells from tasked 0.5 m X-band detail, retains satellite-limited cadence and explicitly states InSAR alone cannot establish design tolerance or failure mode.
Supports: TRAIL satellite-InSAR risk intelligence · core features
KorrAI pyStaMPS GitHub reports a Python persistent-scatterer implementation validated against MATLAB StaMPS on a 61-scene Houston Sentinel-1 stack and broader site tests. This is an author-reported reproducibility comparison, not independent validation of TRAIL reasoning or structural safety.
KorrAI pyStaMPS GitHub reports a Python persistent-scatterer implementation validated against MATLAB StaMPS on a 61-scene Houston Sentinel-1 stack and broader site tests. This is an author-reported reproducibility comparison, not independent validation of TRAIL reasoning or structural safety.
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