


Sovereign Physical AI for connected and critical operations
Extending connected infrastructure into real-time perception, operational intelligence and governed action.








Sovereign Physical AI for connected and critical operations
Extending connected infrastructure into real-time perception, operational intelligence and governed action.









Many organizations already have networks, cameras, sensors and operational systems. The remaining challenge is turning those assets into timely, explainable and operationally useful intelligence.


Final architecture would be determined jointly for each customer environment.


Detect, classify, search and summarize operational activity.
Correlate signals across equipment, environmental sensors and software.
Process data locally for lower latency, resilience and data control.
Investigate events, assemble evidence and recommend actions.
Keep consequential physical-world changes under operator control.
Represent assets, environments, events and operational scenarios spatially.


Extend SaskTel connectivity and IoT into real-time municipal insight and governed action.



AgriTwin brings edge AI, digital twins and operational agents to connected agriculture.



Start with one measurable operational problem, prove value, then scale on evidence.



Map operational visibility to each stage of the airport journey.



Local compute, resilient data movement and governed operation across distributed sites.



Machine-mounted vision and onboard edge intelligence to improve harvesting consistency, reduce yield loss and give operators real-time feedback in the field.







Actual deployment photographs. Customer identity withheld pending written approval.
Harvester operators need greater visibility into harvesting conditions while the machine is operating. Field environments also introduce variable conditions, equipment vibration and intermittent connectivity, limiting the usefulness of cloud-dependent systems.
M2M is developing a machine-mounted vision system that processes harvesting activity directly on the equipment. Onboard edge computing supports real-time monitoring and simple operator-facing feedback without depending on continuous back-office connectivity.
Machine-mounted cameras observe harvesting activity.
Onboard edge device analyzes imagery on the harvester.
Identifies conditions affecting quality, consistency, yield.
Real-time machine-level feedback in the cab.
Retain locally, synchronize when connectivity returns.


A live M2M deployment turning multi-day emergency stoppages into scheduled maintenance windows on the primary processing conveyor.

Source: M2M internal delivery record, Twin Berry Farms conveyor project. Customer named for internal SaskTel discussion only.


Six engagements demonstrating edge AI, connected assets, operational analytics and scalable data workflows across food, energy, buildings, environmental monitoring and maritime safety.
Status badges reflect current project state — completed engagements and prototypes are separated from active validation work. Card imagery is representative photography, not actual customer deployments. Named customer references require customer approval. Click any card for verified project facts and the proposed SaskTel-enabled extension.


A staged path from discovery to rollout, and the four steps we propose taking together to reach the first pilot.
Use-case, KPI/ROI hypothesis and pilot recommendation.
Technical validation on sample or limited live data.
Live-environment KPI measurement + production roadmap.
Multi-site deployment with support and lifecycle model.
Select one SaskTel-sponsored customer opportunity.
Run a 60–90 minute use-case workshop.
Confirm the smallest measurable pilot.
Agree roles, account ownership and commercial structure.