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Maintenance / MaintainAI

Cutting unplanned downtime across distributed assets

A representative predictive-maintenance scenario: moving from calendar-based servicing to condition-based work orders a planner approves.

Representative scenario, not a completed client engagement. Published benchmarks inform the targets below; these are not results delivered by VelocityMind.

The challenge

A representative industrial operator runs rotating equipment across a dozen sites on a purely time-based maintenance schedule.

Calendar-based maintenance fails in two directions at once: it services healthy machines, and it misses the ones degrading between intervals. The cost of getting it wrong is well documented — Siemens/Senseye put unplanned downtime at roughly $1.4T a year across the Global 500, around 11% of revenue, reaching about $2.3M an hour in automotive.

The sensor data needed to do better already exists. It sits in historians and CMMS records that no one has time to read together, in formats that differ site to site.

Setting
Representative — industrial operator
System concept
MaintainAI
Illustrative duration
10 weeks

The architecture

We deploy MaintainAI against the operator's existing sensor estate, SCADA/PLC historians, and CMMS. Ingestion agents normalize the streams into one asset model; a prediction agent learns failure signatures from the operator's own historical maintenance and sensor records under a signed data agreement, validated against known past failures; a scheduling agent proposes maintenance windows against production plans, parts availability, and technician skills. Work orders are proposed, not issued — a planner approves every one before it reaches a technician.

ROLE / 01

Sensor Agent

Ingests and normalizes heterogeneous sensor, historian, and CMMS data into one asset model

ROLE / 02

Prediction Agent

Identifies failure signatures using pattern matching and anomaly detection, with a confidence score attached

ROLE / 03

Scheduling Agent

Proposes maintenance windows against production schedules, parts availability, and technician skills

ROLE / 04

Reporting Agent

Generates health dashboards, alert thresholds, and reliability summaries for the maintenance team

A proposed delivery path

This sequence illustrates the engagement. The actual scope, timeline and quotation are agreed around your requirements.

1-2

Sensor & Data Audit

Mapped sensor types, data formats, historian access, and the CMMS work-order model across sites

3-4

Pipeline Design

Designed the real-time ingestion pipeline and built the failure-signature library with the reliability team

5-8

Model Development

Tuned and evaluated prediction models on the operator's own historical maintenance and sensor records under a signed data agreement, validated against known past failures

9

Shadow-Mode Pilot

Ran at two sites in shadow mode, measuring warning lead time and false-alarm rate against the reliability team's own judgement

10

Handover & Rollout

Extended to the remaining sites with health dashboards, alert thresholds, and an operator runbook

Benchmark context

Published figures used to frame this scenario. Baselines describe the referenced setting; targets are illustrative, not measured project outcomes.

Illustrative target40%

Less unplanned downtime

Source: McKinsey — 30-50% range for condition-based programs
Illustrative target25%

Lower maintenance cost

Source: McKinsey — 10-40% range
Illustrative target30%

Longer equipment life

Source: McKinsey — 20-40% range
Published baseline$1.4T

Annual cost of unplanned downtime today

Source: Siemens/Senseye, 2024 — Global 500, ~11% of revenue

Deliverables & controls

What the scope can include

  • Prediction and scheduling agents running against your own historians, sensors, and CMMS
  • Normalized asset model and failure-signature library built with your reliability team
  • Evaluation report covering warning lead time and false-alarm rate against your recorded history
  • Alert thresholds, health dashboards, and an operator runbook
  • All source code in your repository, with the deployment owned by your team

Where people stay in control

  • Work orders are proposals. A planner approves every one before a technician is dispatched.
  • The system runs in shadow mode through the pilot so predictions are scored against reality before anything changes.
  • Every alert carries a confidence score and the signal that triggered it, so a reliability engineer can overrule it with the evidence in front of them.
  • Safety-critical interlocks stay in SCADA/PLC. The agent system reads from the control layer and does not write to it.

Sources behind the scenario

  1. 30-50% less unplanned downtime, 10-40% lower maintenance cost, 20-40% longer equipment life
    McKinsey
  2. Uptime +10-20%, planning time -20-50%, maintenance cost -5-10%
    Deloitte
  3. Unplanned downtime costs the Global 500 ~$1.4T/yr (~11% of revenue); up to ~$2.3M/hr in automotive
    Siemens/Senseye, 2024

Put it into practice

A system around your reality.

Discuss this architecture in the context of your data, your tools and the decisions your people make.

Start a conversationScoped to your project. Quotation on request.
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