PDIS-16 is designed to integrate into the SCADA and PLC systems you already run. It reads the telemetry your plant already produces, checks every reading against physical law, and publishes a clear drift index back to the screens your operators already use — with no new hardware and no changes to your control logic.
Five stages, running continuously. Described as capability — the internal engine stays proprietary.
Reads the telemetry your plant already produces, over its existing industrial protocols.
Is this reading even physically possible? Frozen sensors, impossible values and injected data are filtered out first.
The governing laws of the asset run continuously against the live state.
One clear number per asset — plus alert level, failure window and recommended action.
Published to the SCADA / HMI screens your operators already watch.
Four ideas, each in one technical line and one plain sentence.
Because every value is validated against physical law, a reading manipulated to look normal but inconsistent with the system's physics is rejected — regardless of whether its network login was valid. The physics is the filter attackers can't talk their way past.
Not a replacement for anything you run — a physics layer that integrates into both.
Runs high-speed control loops — open the valve, stop the motor. Excellent at logic; blind to multi-variable physics.
Validates cross-sensor causality and physical law in real time, and surfaces drift before failure. Integrates into your existing SCADA and PLC.
Renders sensor numbers and sets static red-line alarms for operators. Sees only what it's shown — after a limit breaks.
No new hardware, no rewiring, and no changes to your PLC code. It works alongside your established control loops.
Computed values appear on your SCADA / HMI exactly like any other instrument tag — no custom dashboards to build.
Once the physics is processed, PDIS-16 exposes an API so its results can feed and run on connected 3D and digital-twin systems.
Processing lives inside your facility, next to your controllers — it keeps working even if a screen freezes or a link drops.
Different physics per class — one comparable drift number out.
Every alert traces to physical law and material limits — not an opaque model score you can't interrogate.
The same inputs always produce the same result. No probabilistic guessing on a safety-relevant path.
Every asset is fully monitored, degraded-but-flagged, or halted and logged. There is no silent fourth state where it quietly produces numbers it can't stand behind.
A non-repudiable record every alert and action links back to — for insurers, regulators and asset owners.
Nothing is fitted to historical failures. It's meaningful on day one, before it has ever seen the asset fail.
Built on established high-integrity control-systems practice, aligned to industrial functional-safety standards.
Real, documented failures — and the minor signal physics would have caught.