Predictive Maintenance

Equipment fails between inspections. That is the whole problem.

Condition and usage monitoring that moves maintenance off the calendar and onto the signal — so the failure becomes a scheduled job instead of a stopped line.

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See the platform
Built for
Maintenance, reliability and plant managers
Connects
Retrofit sensors, PLCs and SCADA
Deploys
Sovereign cloud, private cloud or on-site

/ The shift /

What is actually happening today — and what changes.

Flip between the operation as it runs now and the operation once the data is joined up.

  1. 01
    Maintenance is scheduled by date.

    Which wastes money on healthy equipment and misses the machine that was never going to make it to the next service.

  2. 02
    The warning existed.

    Vibration climbed for three weeks. Temperature drifted. Nobody was watching that specific signal on that specific machine.

  3. 03
    Downtime cost is estimated.

    Because nobody can attribute it to a cause with confidence.

/ How it works /

From signal to decision in four moves.

Each step runs on the shared IoT Cube foundation, so nothing here is a separate system to maintain.

  1. 1

    Instrument the critical machines

    Retrofit vibration, temperature and current sensors go on the assets that matter, and existing PLC and SCADA tags are read alongside them.

  2. 2

    Learn each machine’s normal

    Signals are linked to the asset, its duty and operating state, and a baseline is built for that specific machine.

  3. 3

    Detect and rank the drift

    Models and thresholds spot deviation from baseline, estimate severity and suggest a probable cause such as bearing wear or misalignment.

  4. 4

    Plan the job

    A work order opens in your CMMS with the evidence attached, and parts and downtime are planned before the failure chooses the time.

/ What you get /

Capability, not just visibility.

Early fault detection with probable cause

Models compare live vibration spectra, temperature and current against each machine’s learned baseline. Drift is ranked by severity and matched to likely faults such as bearing wear, imbalance or misalignment.

Condition monitoring across mixed equipment

Machines, gensets, pumps and mobile plant share one asset hierarchy. Sensor data and PLC tags are stored per asset, with operating state used to avoid false alarms.

Signal analysis at the edge

High-frequency vibration and acoustic data are processed on an edge gateway into features such as RMS and spectral bands, so only what matters crosses the network.

Work orders raised automatically

When a fault crosses a severity level, a work order is created in your CMMS or EAM with the asset, trend, severity and recommended check.

Spare parts planned on condition

Detected faults and their expected progression are shared with procurement, so parts are ordered for the machines that need them rather than by average consumption.

Downtime and reliability reporting

Downtime events, causes, MTBF and early-detected faults are recorded per asset, giving reliability reviews a record instead of an estimate.

/ Use cases /

Where teams put it to work first.

Catch bearing wear early

Detect a rising vibration signature on a pump or motor and schedule the repair for the next planned stop.

Protect standby power

Watch coolant, load and run hours on remote gensets, and dispatch a technician before the site loses backup.

Keep vehicles in service

Turn fault codes and engine data from trucks and mobile plant into planned workshop jobs instead of roadside breakdowns.

Order parts on condition

Share detected faults with procurement, so spares are ready for the machines that need them when work begins.

/ Benefits by team /

Every team gets a different answer from the same record.

01

Maintenance

Technicians spend time on machines that are drifting, and work orders arrive with the fault already described.

02

Operations

Stoppages move from surprise to schedule, so production and delivery plans are not decided by a failure.

03

Finance

Downtime and cost avoidance are recorded per asset, giving capital and maintenance budgets a defensible basis.

04

IT

PLC and SCADA data is read through an edge gateway outside the control loop, with read-only connections by default.

/ In practice /

What it looks like on an ordinary Tuesday.

Three moments where the platform earns its place. Scenarios are illustrative.

The signal

Vibration on a transfer pump at a Yanbu process plant has been climbing steadily for twelve days.

  1. 1

    The model flags a bearing-wear signature and ranks it as medium severity.

  2. 2

    A work order opens in the CMMS with the trend and recommended inspection.

  3. 3

    Reliability schedules the bearing change for the next planned stop.

The outcome

The repair happens on the plant’s schedule, not the pump’s.

/ Technology /

Four layers. One record underneath.

Device-neutral at the bottom, open at the top, and sovereign all the way through.

01

Devices in the field

Keep the hardware you already have

  • Vibration and temperature sensors
  • Current and power monitors
  • PLC and SCADA interfaces (OPC UA, Modbus)
  • Retrofit condition kits
02

Connectivity & protocols

Any carrier, any protocol

  • OPC UA
  • Modbus TCP / RTU
  • MQTT
  • LoRaWAN
  • CAN / J1939
  • 4G/5G via any Saudi carrier
  • Ethernet and Wi-Fi on site
03

IoT Cube platform

Sovereign, multi-tenant, AI-neutral

  • Time-series store
  • AI model runtime
  • Edge buffering
  • Asset & identity record
  • Workflow automation
  • Open APIs & webhooks
04

Your systems of record

Data lands where decisions are made

  • CMMS and EAM
  • ERP
  • Spare parts and procurement
  • Production systems

/ What you measure /

Numbers that replace arguments.

The indicators this solution produces continuously, per asset, per site and per contract.

Unplanned downtime

Hours of stoppage not scheduled in advance, per asset, line and site.

Faults detected early

Faults found from condition signals before they caused a stoppage.

Planned versus reactive work

Share of maintenance work orders raised from schedule or condition rather than breakdown.

Mean time between failures

Average operating time between failures, per asset or asset class.

Alert-to-work-order time

Time from a condition alert to a work order being raised and assigned.

Parts on hand at repair

Share of condition-based jobs where the required parts were ready when work began.

/ Rollout /

Start with one decision. Scale what works.

  1. Phase 1

    Choose the critical assets

    We review failure history and criticality with your reliability team and select the machines where an early warning changes the outcome.

  2. Phase 2

    Instrument a pilot line

    Retrofit sensors and PLC connections go onto the pilot assets, and baselines start building while threshold alerts run from day one.

  3. Phase 3

    Prove the early warning

    Detected faults are inspected and confirmed with technicians, and work orders flow into the CMMS without manual re-entry.

  4. Phase 4

    Scale across the plant

    More asset classes, sites and models are added on the same hierarchy and workflow. Weeks, not quarters, per wave.

/ Security & sovereignty /

Sovereign is a place, not a promise.

In-Kingdom residency

Data stored and processed inside Saudi Arabia, on infrastructure you can name in a tender.

Built to national controls

Designed to align with NCA cybersecurity controls and the Personal Data Protection Law.

Isolated by tenant

Tenant isolation, role-based access and a full audit trail across users, actions and devices.

Your cloud or site

Deploy into a sovereign cloud, your private cloud or on-premises without becoming a different product.

Read the data residency statement →

/ Questions /

Frequently asked.

Our machines are old and have no sensors.

Most do not. Retrofit condition monitoring is normal and it is usually where we start.

Do we need a data scientist?

No. The models ship with the solution, and you can bring your own if you have them.

How long before it is useful?

It needs a baseline period to learn normal. That is weeks, not quarters, and threshold alerting works from day one.

Can it read from our PLCs and SCADA without disturbing control?

Yes. Connections are read-only by default over OPC UA or Modbus, through an edge gateway that sits outside the control loop. Nothing is written back unless you decide it should be.

Which maintenance systems does it raise work orders in?

Any CMMS or EAM with an API or import route. The work order carries the asset, the signal, the severity and the probable cause, so the technician starts informed.

Does analysis run on site or in the cloud?

Either. High-frequency vibration can be processed at the edge and only features sent up, or everything can run in sovereign cloud. Industrial connections are designed to align with NCA controls.

Bring us the decision that takes too long today.

Start with the problem. IoT Cube provides the foundation underneath.

Request a Demo

Tell us about your operation. A specialist will get back to you to arrange a demo.