Application note · Specialised production

Application Note: Predictive Maintenance from Historian, Telemetry and Vision

Build a governed feature and inference pipeline that combines machine state, maintenance outcomes and visual evidence without flooding operators with alarms.

This pattern predicts or detects degradation using contextual telemetry and optional vision. It prioritises actionable lead time and controlled deployment over an isolated offline accuracy score.

Data contract

Define asset, channel, unit, sampling, clock, operating state and quality flags. Join maintenance actions and confirmed failure modes using event time. Use store-and-forward gateways and preserve raw windows needed for root-cause review. Exclude shutdowns and recipe changes from “failure” labels unless intended.

Platform roles

AxiOverseer runs live feature extraction, multi-stream vision and retraining/validation separation across two GPUs. AxiRelay serves multiple independent models. AxiCrucible separates production service onto one node and training/maintenance onto another with four 96GB GPUs.

Model development

Start with thresholds and statistical baselines. Split training and test data by time and asset to prevent leakage. Evaluate precision/recall at the event level, warning lead time and alarm burden. Use vision only where it adds evidence and document lighting/camera conditions.

Deployment

Register the feature code, model, threshold and intended asset population. Run shadow mode, then issue advisory alerts to named roles. Integrate with the maintenance workflow so disposition returns as learning data. Do not automatically stop or control equipment without a separately validated safety/control design.

Monitoring

Prometheus can monitor service health while domain metrics track missing channels, drift, warning lead time, false alerts and missed events. MLflow can track experiments and packaged models. Retain a rules-based fallback and a clear method to suppress a faulty release.

Primary technical references

References are provided for software architecture and implementation planning. Validate the versions, licences, support matrix and regulated-use requirements applicable to the final deployment.

From technical concept to production system

Apply this technology through an Axiotech engineering work package

Axiotech can connect the compute, AI or analytics platform to the machine controls, data contracts, validation evidence and lifecycle-support model required for industrial use.

Relevant Hyperion platforms

Hyperion X1440

AxiRelay

A dense inference, RAG, CI and multi-service node where several independent GPU workloads must run concurrently.

One 4U node; 96 AMD EPYC cores; 768GB ECC DDR5; four NVIDIA RTX PRO 4000 24GB GPUs providing 96GB aggregate VRAM.

Hyperion X1250

AxiOverseer

A production-intelligence node for machine vision, telemetry, predictive maintenance and low-latency factory AI.

One 4U node; 96 AMD EPYC cores; 768GB ECC DDR5; two NVIDIA RTX PRO 5000 48GB GPUs; protected local/NAS data services.

Hyperion X2260

AxiCrucible

A two-node multi-user AI workgroup for clinical research, production intelligence, training and resilient service placement.

Two 4U nodes; four NVIDIA RTX PRO 6000 96GB GPUs; 100GbE RDMA; shared protected storage; KVM and Kubernetes-ready infrastructure.

Configuration and quotation

Validate this workload on Hyperion

Final architecture and price depend on representative code and data, concurrency, storage, networking, site infrastructure, component availability and export compliance.

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