Home / Predictive Maintenance AI
Industrial IoT & manufacturing

Predictive Maintenance AI & Software

Turn sensor data into failure predictions. Custom-built predictive maintenance for manufacturing and industrial IoT — fewer breakdowns, less unplanned downtime, and a model your team actually owns.

Last updated: 11 June 2026

Summarize with AI Prompt copied — paste it into the chat
Share
In short

Predictive maintenance AI reads sensor and PLC data from your machines, learns each asset's failure modes, and flags degradation weeks before breakdown — cutting unplanned downtime. Crux builds it custom: a €2,500 audit scopes the data, a €20,000 proof of concept proves prediction on one asset class, and production runs from €50,000. You own the code.

What predictive maintenance AI actually does

Predictive maintenance AI models the condition of each machine from its own signals — vibration, temperature, current, pressure, acoustic and PLC/SCADA logs — and forecasts when a component will drift out of spec. Instead of a fixed service calendar or a costly breakdown, your team gets a ranked list of assets, the likely failure mode, and the estimated time to failure. It is a custom build wired to your line, not a dashboard bolted on top. See how we implement AI end to end.

From sensor to working model

Every project follows the same signal path. 1. Sensors & data pipeline: we tap existing PLC/SCADA tags and add sensors only where the physics demand it, then stream to a time-series store with clean timestamps and units. 2. Feature engineering: raw signals become features — FFT bands and RMS for vibration, rolling statistics, thermal gradients, duty-cycle context — labelled against your maintenance and breakdown history. 3. Model: we start with interpretable anomaly detection and survival / remaining-useful-life models, escalating to deep models only when the data earns it, and validate on held-out failures the model has never seen. 4. Digital-twin link: the model plugs into a digital twin of the asset so predictions carry physical context and simulation and forecasting stay in sync. Every model ships with EU AI Act-ready documentation, and you own the code and the pipeline.

Reactive, preventive or predictive?

The value comes from moving maintenance decisions along this ladder — from calendar to condition:

ApproachHow it decidesTrade-off
ReactiveFix after failureCheapest to run, but the most unplanned downtime and collateral damage
PreventiveFix on a fixed schedulePredictable, but replaces healthy parts and still misses random failures
Predictive (AI)Fix on measured condition + forecastHighest uptime; needs sensor data and a maintained model

What predictive maintenance AI costs

Pricing is fixed and staged so you never buy the next phase before the last one pays off. A €2,500 audit maps your sensors, data quality and the failure modes worth targeting. A €20,000 proof of concept proves prediction on one asset class against real historical failures. Production starts from €50,000, deployed to your infrastructure with monitoring and retraining — and you own the code.

How we ship

Audit (€2,500): two-to-three weeks scoping data readiness, sensor gaps and the highest-value failure modes, with a go/no-go recommendation. Proof of concept (€20,000): one asset class, real data, measured precision and lead time on held-out failures — proof before scale. Production (from €50,000): a hardened pipeline, monitoring, alerting into your CMMS / maintenance workflow, and scheduled retraining as machines and duty cycles change. We build, deploy and hand over — the code and models are yours.

FAQ

Frequently asked questions

What does a predictive maintenance AI project cost?

Fixed and staged: €2,500 audit, €20,000 proof of concept, production from €50,000. The audit scopes your data and failure modes, the proof of concept predicts on one asset class, and production deploys to your own infrastructure. You own the code and can stop after any stage.

  • Sensor hardware, if you need more of it, sits outside these prices — the audit tells you whether you do.
  • Many projects stop after the audit, because it shows the failure history is not yet rich enough to predict from.

How much sensor data do we need before it works?

Enough labelled history to see failures repeat, not just occur. That usually means several months of time-series data plus your maintenance and breakdown records. The audit checks this first: if a failure mode has too few examples, we say so and add sensors or wait.

  • Failure records matter more than sensor volume — a model cannot learn a breakdown nobody wrote down.
  • Rare failures are the hard case: if something breaks twice a year, expect to instrument and wait rather than predict now.
  • Existing SCADA, PLC and CMMS exports are usually enough to start; new sensors are a last resort, not a first step.

How does the digital twin fit in?

A digital twin is a physics- or data-driven model of the asset itself. We link the prediction model to it so forecasts carry physical context — load, wear, operating point — and so simulation and prediction share one representation of the machine.

  • It is optional. Many predictive maintenance projects deliver value without one.
  • Where it pays off: what-if analysis and remaining-useful-life estimates, both of which get noticeably sharper.
  • Build it second, once the prediction model has proven itself on real failures.

Is this compliant with the EU AI Act?

Yes, and industrial maintenance normally sits in the lower-risk tiers. Every model ships with EU AI Act-ready documentation: intended use, data lineage, validation on held-out failures, and human oversight of maintenance decisions. You own the code, so you can evidence all of it yourself.

  • Regulation (EU) 2024/1689 sets the risk categories; Article 4 requires AI literacy for staff who use AI at work.
  • Safety-critical assets can raise the risk tier — worth classifying before you build, not after.
  • Check your case in four questions with the free EU AI Act risk checker.

Can it also do machine vision or quality inspection?

Yes. The same pipeline extends to camera-based inspection and defect detection. Vision models flag defects on the line while sensor models predict machine failure, and both feed the same data platform. Many manufacturers start with one and add the other later.

  • Vision needs labelled images of your real good and bad units, which is a separate collection effort from sensor data.
  • Inspection runs on an edge device on the line, so it keeps working without an internet connection.
  • See machine vision for the inspection side in detail.

Predict failures before they cost you a shift

Book a €2,500 predictive maintenance audit and get a data-readiness verdict plus the failure modes worth targeting first — with no obligation to go further.

Book the audit