DCC INTELLIGENCE CAPABILITY

Connect industrial AI/ML to predictive maintenance and better service decisions.

DCC supplies governed real-time and historical machine data, then connects returned model output to the relevant asset, time window and operating context. Service teams review the result and decide what action to take. The value is not the score itself; it is the informed service decision that follows.

New to predictive maintenance?

Learn what predictive maintenance in manufacturing means, how it differs from preventive maintenance and where it can create operational and commercial value.

Why it matters

Make the installed fleet part of a more scalable service business.

Connected machines generate more than operational data. Their behavior can help an equipment manufacturer identify where service attention is needed, support customers earlier and turn specialist knowledge into a repeatable capability across the installed fleet.

01

Protect customer uptime

Use developing changes as evidence for earlier investigation and better-informed service decisions.

02

Focus service expertise

Direct specialists towards the machines and time periods that deserve review.

03

Strengthen the commercial offering

Build differentiated service agreements and digital services around equipment already in operation.

04

Improve across the fleet

Combine machine knowledge, historical behavior and confirmed service outcomes so the use case becomes more useful over time.

The starting point is not a large AI programme. It is one valuable maintenance question with measurable operational and commercial outcomes.

Artificial intelligence

The broad field

Machine learning

Learns patterns from numerical machine and time-series data to detect, predict or classify.

Deep learning

Multi-layer models, including the model family behind LLMs.

What kind of AI is this?

Start with explainable ML in DCC

Numerical industrial data is a natural fit for focused machine-learning models. A bounded use case is faster to test, easier to maintain and easier for service teams to review than a broad AI programme.

LLM interface: possible future scope

A language assistant could later help explain results or prepare reports. It is not part of the current capability described here.

Fleet overview

Focus attention across the installed base

Across a fleet, these results help teams narrow thousands of signals and operating periods to the machines that deserve attention.

Fleet overview

Production assets

24 assets
Line A · Pump 04Review
Line A · Pump 07Normal
Line B · Fan 02Normal

Selected asset

Line A · Pump 04

Review
Observed signalExpected range

Illustrative concept

Use cases

Detect

Highlight unusual behavior for human review.

Predict

Estimate when a defined condition may occur.

Classify

Rank likely issue types and support the response.

Predictive maintenance combines these model jobs: detect behavior that has changed, predict when a defined condition may occur and classify the likely issue so the service team can respond.

Delivery choice

Choose the model ownership that fits the use case

These are parallel delivery options, not maturity steps. The right choice depends on the customer's capabilities, the use case and agreed responsibility boundaries.

01

Bring your own model

The model runs in the customer's environment. DCC provides governed access to relevant real-time and historical data, plus an API path for returning model output.

02

Managed DCC model

The customer uses a standardized DCC model designed for a defined use case, without needing to operate its own ML capability.

03

Custom DCC model

Inuatek develops a customer-specific managed model when a standardized model does not provide sufficient accuracy or functionality for the specialized need.

A future AI copilot could add a language interface for explanation, reporting and troubleshooting; it is not currently part of these options.

Bring your own model

A governed round trip from machine data to service action

For the customer-owned option, the model stays in the customer's environment. DCC provides authorized data access and receives model output through an API for review in machine context.

DCC environment

  • Real-time machine data
  • Historical machine data

Inuatek monitors data delivery

Customer environment

The customer's ML model evaluates authorized data in the customer's own environment.

Customer monitors its own model

DCC review and action

DCC connects the returned result to the relevant asset, time window and operating context so a service team can review and act.

Bring-your-own-model data path. Access policies and audit trails govern the exchange; responsibility for the customer's model remains with the customer.

Predictive maintenance example

Detecting insufficient defrosting in a heat pump

A heat pump can show repeating pressure-drop cycles during normal operation. After defrosting, the signal should return to its expected pattern. In this example, that behavior changes and creates a period worth reviewing for possible insufficient defrosting.

Instead of asking a technician to scan every historical trend, anomaly-detection models evaluate the new period against earlier operation. The illustrations separate the explanation into two parts. First, the pressure-drop pattern stops resetting as expected. Second, the pressure behavior and evaporation temperature change in the same time window, and the model raises a candidate event for review.

DCC connects the candidate period to the asset and operating context. The event is not a diagnosis and does not by itself predict compressor failure. A technician still decides whether it reflects a defrosting issue, another operating condition or sensor behavior.

Simplified chart showing normal heat-pump pressure-drop cycles resetting after defrosting and two highlighted cycles continuing to rise beyond the expected reset point.
A simplified view of the pressure-drop pattern. Earlier cycles reset after defrosting; in the highlighted periods, the pressure drop continues to rise beyond the expected reset point.
Simplified multi-signal chart showing pressure-drop behavior rising while evaporation temperature falls in the same highlighted time window, producing a candidate service event for review.
An illustrative multi-signal view. The model evaluates pressure-drop behavior and evaporation temperature together; when both change in the same time window, it creates a candidate service event for review in DCC.

Beyond fault detection

Industrial heat-pump data also supports measured performance

The example above uses machine signals (pressure and temperature behavior) to flag periods worth a technician's review. Measured performance is a different task: industrial process-heat reporting relies on separately metered heat flow and the outlet temperature, recorded simultaneously so delivered heat can be quantified over time.

Service insight

Machine signals such as pressure, temperatures and operating states feed anomaly detection and fleet-wide service. They help service teams spot deviations and review candidate events across installations.

Measured heat output

Calibrated heat-flow metering plus simultaneously monitored outlet temperature create a quantified heat-delivery basis, suitable for performance analysis and, where a project requires it, monitoring and reporting reviewed by an independent verifier.

When configured for a project, DCC can connect these data streams and organize the historical basis for analysis and reporting. Project measurement hardware, data mapping and verification remain project-specific responsibilities.

Explore heat-pump data & IF26 reporting

DCC review concepts

From model output to action

The heat-pump example shows anomaly detection in practice. The following concepts show how the same DCC pattern supports human review, condition forecasting and likely-cause ranking across other machine types.

Anomaly review

Pump 04 · Line A

Needs review

Window

14:20–14:38

Signal

Vibration

Asset state

Running

Review decision

Assign operational context

Illustrative concept

Forecast & classification

Defined operating condition

Condition estimate

18–24 h

NowReview window

Likely issue types

  1. 1Flow restriction62%
  2. 2Bearing wear24%
  3. 3Sensor drift14%

Illustrative concept

Illustrative notification

Bring a reviewed result to the service team

A notification can direct a person to the relevant machine, model output and supporting data. The recipient still reviews the context before deciding what to do.

Illustrative alarm email from the presentation. The 90% probability and 24-hour prediction shown are example values, not a validated claim for the heat-pump case.
How the model is validated

These are candidate anomaly-detection methods, not proof of predictive accuracy. A use case may compare or combine suitable methods, then validate them against historical events and technician review.

MAD

Mean absolute deviation

thresholdmean

Flags values that sit unusually far from the expected average.

IF

Isolation Forest

123short path

Flags unusual observations that can be separated from the rest in fewer steps.

LOF

Local Outlier Factor

low localdensitydense neighbors

Flags points that are sparse compared with their nearest operating neighbors.

PCA

Principal Component Analysis

PC1largeerror

Flags behavior that does not fit the main relationship between correlated signals.

Technical evidence

Two charts showing heat-pump signals and the anomaly scores produced by four detection models during the selected period.
Four candidate model outputs for the same period. Differences help the team choose and validate a useful approach; they do not imply that all four methods are deployed together.

Governance

Every use case needs an operational owner, an acceptance criterion, data and model responsibility, a review workflow and ongoing monitoring. Run a bounded shadow pilot before operational rollout.

Pilot requirements

  • Operational owner
  • Acceptance criterion
  • Data and model responsibility
  • Review workflow
  • Ongoing monitoring

Start with one maintenance question.

Bring a machine type, a set of operating signals and the service question you want to answer. We will help map the data, pilot scope and review workflow in DCC.

Discuss a predictive maintenance pilot