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Industrial Intelligence Platforms

Intelligence for the systems that run the world.

Peryx builds the AI layer for industrial operations — turning continuous telemetry into decisions your team can act on. We started with solar because it is the hardest optimisation problem in the physical world.

What the platform does
  • 01Reads the instrumentation you already have, at the resolution it was produced.
  • 02Models what each asset should be doing under the conditions actually observed.
  • 03Attributes the difference to named causes, ranked by what it costs to ignore.
Built forSolarRenewablesUtilities & GridManufacturingWaterInfrastructure

Who we are

An intelligence layer for physical operations.

Peryx builds platforms that model physical assets, learn how they actually behave, and turn continuous telemetry into decisions operators can act on.

Not a dashboard. Not a monitoring portal. One architecture, taken deep into a single industry at a time — because a system that does not know the physics of the asset it is watching can only report numbers back at you.

We began with solar. Dense telemetry, silent degradation, weather coupling, mismatched hardware, and money attached to every hour — everything that makes industrial optimisation hard, in one asset class. Solving it there is what makes the rest tractable.

Products

What you can deploy today.

Everything below carries its real status — what is in production, what is being built, and what is designed and scheduled.

Available today

Solar Intelligence Platform

Physics-calibrated performance intelligence for solar fleets — every megawatt-hour of loss attributed to a cause.

  • Every five-minute interval compared against a model of your own plant, built from its PAN/OND configuration
  • Soiling, string mismatch, inverter drift, and equipment failure separated and quantified independently
  • Heterogeneous inverter brands, module vintages, and sites normalised into one fleet picture
Explore the platform

Digital Twin Engine

In development

The modeling core underneath every Peryx platform, being generalised beyond solar assets.

Enterprise APIs

In development

Programmatic access to telemetry, model outputs, and derived intelligence for your own systems.

Utility Intelligence

Planned

Grid and distribution asset intelligence for utilities and network operators.

Manufacturing Intelligence

Planned

Process and equipment intelligence for asset-heavy production lines.

Available today
In production use. You can deploy it now.
In development
Being built now, with a working internal implementation.
Planned
Architecture designed, scheduled for build.

Capabilities

What the platform actually does.

Ten capabilities that ship together, because none of them is useful on its own.

  • AI analytics

    Models trained on the residual between physical expectation and measured behaviour, so they learn what is anomalous rather than what is average.

  • Digital twins

    A calibrated model of your specific asset, continuously reconciled against what that asset is actually doing.

  • Asset monitoring

    Every signal ingested at the resolution it was produced, down to individual strings, drives, and sub-assemblies.

  • Performance intelligence

    Expected versus actual, computed per interval against conditions observed at the asset — not against nameplate.

  • Predictive maintenance

    Degradation identified while it is still gradual, and ranked by the consequence of leaving it alone.

  • Operational dashboards

    Fleet, site, and component views built for people who have to act on them during a shift, not for a quarterly slide.

  • Workflow automation

    Findings routed into the systems your team already works in, with the evidence attached.

  • API integration

    Normalised telemetry and model output available programmatically, so intelligence is not trapped in our interface.

  • Role-based access

    Scoped by role and by site, so plant-level detail reaches the people accountable for it and no further.

  • Custom models

    Where an asset class or failure mode is specific to your operation, the model is built for it rather than approximated.

Technology

Three decisions that shape everything else.

Ingestion

Store what the sensor actually produced

Most platforms average telemetry on the way in because it makes storage cheap and dashboards fast. It also destroys the exact signal that identifies a fault. We store what the asset produced and average only at the point of presentation.

  • Five-minute and sub-minute signals retained
  • Vendor schemas normalised without losing precision
  • Gaps and bad data marked, not silently interpolated
NATIVEAVERAGED — THE FAULT IS GONE
Modeling

Physics first, machine learning second

A model trained directly on operating history learns your problems along with your normal behaviour. We build the physical expectation first, then let machine learning work on what the physics cannot explain.

  • Expected behaviour derived from specifications and conditions
  • Per-asset baselines rather than fleet averages
  • Learning applied to residuals, not to raw output
RESIDUALEXPECTED (MODEL) vs MEASURED
Delivery

Findings an engineer can argue with

An alert that cannot be checked gets ignored after the second false positive. Every finding carries the measurement, the expectation, and the reasoning that connects them, so it can be verified or rejected on the evidence.

  • Every number traceable to a measurement
  • Attribution shown, not just the conclusion
  • Delivered into existing workflow tools
FINDINGString 14B underperformingEXPECTEDmodeled from spec + irradianceMEASUREDraw interval data

Industries

Six sectors, one substrate.

What changes between them is the physics being modeled and the failure modes worth naming — and how far each one has progressed.

The hardest optimisation problem we could find.

Deployed
What is hard
  • Plant-level meters show a shortfall but cannot say whether it is soiling, a shaded string, a drifting inverter, or a failed combiner.
  • Inverter-native monitoring alarms on absolutes, so gradual degradation stays below threshold until it has cost a season of generation.
How Peryx applies
  • Each plant's PAN/OND configuration becomes a physics model of expected generation under the weather actually observed.
  • Every five-minute interval is compared against that model at string, MPPT, and inverter level.

Running against real operational data. Deployed and running against real operational data. This is the product you can use today.

Solar in detail

Why Peryx

Monitoring tells you what happened.

Both columns describe real systems. The difference is whether anything in the platform knows what the asset was supposed to be doing.

  • What it tells you

    Traditional monitoring

    What happened

    Peryx

    Why it happened, and what it is costing

  • Baseline

    Traditional monitoring

    Nameplate ratings or a rolling average of recent behaviour

    Peryx

    A physics model of this specific asset under the conditions actually observed

  • Data resolution

    Traditional monitoring

    Averaged on ingestion to keep storage and dashboards cheap

    Peryx

    Retained at the frequency the asset produced it

  • Loss attribution

    Traditional monitoring

    One aggregate shortfall figure

    Peryx

    Separated into named causes and quantified independently

  • Detection

    Traditional monitoring

    Threshold alarms, which gradual degradation stays underneath

    Peryx

    Deviation from expectation, which catches decay while it is still slow

  • Mixed fleets

    Traditional monitoring

    One portal per vendor, none of which agree on 'normal'

    Peryx

    Brands, vintages, and sites normalised into one operating picture

  • Output

    Traditional monitoring

    A dashboard someone has to remember to open

    Peryx

    Ranked findings with evidence, delivered into your existing tools

Security & trust

Practices, not a badge wall.

Operator ATelemetryModelsAlertsOperator BTelemetryModelsAlertsOperator CTelemetryModelsAlertsShared platform infrastructureEncrypted in transit and at rest · role-scoped access · audit logged
  • Per-tenant isolation

    Each operator's telemetry, models, and alerts run in an isolated tenant. Nothing is pooled and nothing crosses the boundary.

  • Encrypted in transit and at rest

    End to end, from ingestion through storage, using standard TLS and storage-level encryption.

  • Role-scoped access

    Permissions are scoped by role and by site, so plant-level detail reaches the people accountable for it and no further.

  • Audit logging

    Access and configuration changes are logged, so you can answer who saw what and when.

  • Private and VPC deployment

    Multi-tenant cloud by default, with dedicated and in-VPC deployment where residency or policy requires it.

  • Contractual protection from day one

    NDAs and standard enterprise data-handling terms are in place before any operational data is shared.

Questions

The things people actually ask.

Including the ones with awkward answers. If something here is missing, ask us directly.

See what your operation is actually losing.

A walkthrough on your own asset class, with a scoped pilot on one to three sites if it's a fit.