Solutions · Use case

Predictive Maintenance.

Generative AI, scoped to the problem it solves.

Lead-time-to-failure prediction over historian, sensor, and incident-log data.

Use-case context

Asset-heavy industries lose disproportionate margin to unplanned downtime, and the data needed to predict it already exists: historian streams, vibration sensors, maintenance logs, incident reports. The hard problem is not the model. It is calibrating predictions against ground-truth incident logs so lead-time-to-failure estimates are actionable, not alarmist. We build prediction pipelines that combine time-series models over sensor data with NLP over incident-report and maintenance-log corpora, surface predicted failures with a lead-time band and confidence score, and route the top-ranked alerts into your existing CMMS or work-order queue. The model is observable and re-trainable as new ground-truth incidents arrive. Measured by precision-at-k on lead-time-to-failure predictions calibrated against ground-truth incident logs (top-k predicted failures per week, scored against what actually happened), plus mean-time-to-detect (MTTD) on incidents the model surfaces. We track false-positive rate, because every false alarm costs a crew dispatch. We do not deploy predictive-maintenance outputs into control-room or asset-safety systems autonomously. Predictions feed planners and reliability engineers, not the SCADA layer or the protective-relay logic. In our coverage footprint this lands first across energy, manufacturing: the sectors where the data shapes and evaluation criteria line up cleanly with what this use-case actually measures.

Data shape

Historian time-series streams, vibration and condition-monitoring sensors, maintenance work-order history, incident reports, and the asset register that ties identifiers across systems.

Where we draw the line

We do not deploy predictive-maintenance outputs into control-room or asset-safety systems autonomously. Predictions feed planners and reliability engineers, not the SCADA layer or the protective-relay logic.

Talk to us about a predictive maintenance engagement

A 30-minute call to scope where predictive maintenance moves the curve against your evaluation criteria.

Book strategy call

Why work with Veso AI on predictive maintenance

Measured

Evaluation, not opinion

Measured by precision-at-k on lead-time-to-failure predictions calibrated against ground-truth incident logs (top-k predicted failures per week, scored against what actually happened), plus mean-time-to-detect (MTTD) on incidents the model surfaces. We track false-positive rate, because every false alarm costs a crew dispatch.

Proven

Quality you can measure

In the first two weeks we build a labelled evaluation set with your experts, so quality is measured from day one, not hoped for.

Production

Built to operate

We hand over working software, infrastructure-as-code, and an evaluation harness your team can run and maintain.

Related use-cases

FAQ

Predictive Maintenance: frequently asked questions

How is success measured for predictive maintenance engagements?

Measured by precision-at-k on lead-time-to-failure predictions calibrated against ground-truth incident logs (top-k predicted failures per week, scored against what actually happened), plus mean-time-to-detect (MTTD) on incidents the model surfaces. We track false-positive rate, because every false alarm costs a crew dispatch. The evaluation harness is part of the deliverable, not an afterthought. We build it during the engagement so your team can run it against the next prompt, model, or pipeline change without us.

Where does Veso AI NOT apply predictive maintenance?

We do not deploy predictive-maintenance outputs into control-room or asset-safety systems autonomously. Predictions feed planners and reliability engineers, not the SCADA layer or the protective-relay logic. This is a deliberate trust boundary, not a capability gap. We are equipped to build the systems we decline to build, and we decline to build them because the risk-to-value ratio in those surfaces does not justify it.

Which industries does predictive maintenance apply to?

In our coverage footprint, predictive maintenance most commonly lands in energy, manufacturing. The specific deployment shape varies by industry: data shapes, evaluation criteria, and regulators differ enough that we re-scope each engagement against the sector it lands in.

What data shape do you need to start a predictive maintenance engagement?

Historian time-series streams, vibration and condition-monitoring sensors, maintenance work-order history, incident reports, and the asset register that ties identifiers across systems. In the first two weeks we look at the real data (what exists, what is labelled, where it has to live) and build the plan around what is actually there, not around an assumption.

Which Veso AI services ship predictive maintenance?

predictive maintenance ships under our Generative AI Consulting, Custom Software Development, Cloud Solutions Architecture, Data Science & Analytics service lines, depending on the integration surface and the build-vs-platform trade-off. Most engagements draw on more than one. The boundary between consulting, custom build, and integration is a scoping decision we make explicit during discovery.

How does a predictive maintenance engagement typically start?

We spend two weeks with your leadership and operators, build an evaluation set with your subject-matter experts, and come back with a clear plan and a clear price. That evaluation set anchors every decision after it (model choice, prompt strategy, retrieval design) so quality is measurable from week one, not from go-live.