AI Predictive Maintenance Software

Reactive maintenance is the most expensive kind

Unplanned downtime costs more per hour than planned maintenance, typically 5-10x more when you factor in emergency labor rates, expedited parts, production losses, and secondary damage from running failed equipment. Calendar-based maintenance reduces surprise failures but replaces components that still have useful life, adding cost without eliminating downtime. Predictive maintenance uses the sensor data your equipment already generates to identify degradation patterns before failure, so maintenance happens when the equipment needs it and the failure doesn't happen at all.

  • Failure prediction models trained on your equipment sensor data and historical maintenance records

  • Real-time anomaly detection on process parameters with early warning alerts

  • Maintenance schedule recommendations integrated with your CMMS for automated work order creation

  • Remaining useful life estimation for critical equipment components

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The brief

Start with what is not working.

Good software decisions begin with the constraint, not a list of features or a preferred technology.

01

Unplanned equipment downtime costing more per hour than the annual maintenance budget for that machine?

02

Calendar-based maintenance servicing equipment that doesn't need it while missing failures between service intervals?

Plain answer

RaftLabs builds predictive maintenance software for manufacturing operations: equipment failure prediction from sensor data (vibration, temperature, pressure, power draw), anomaly detection on process parameters, and maintenance schedule recommendations integrated with your CMMS or ERP. Predictive maintenance shifts equipment servicing from calendar-based to condition-based, reducing unplanned downtime by 20-40% without over-servicing. Most predictive maintenance projects deliver in 10-14 weeks at a fixed cost.

What to remember

  • FFT-derived bearing fault frequencies (BPFI, BPFO, BSF, FTF) are typically detectable 4-8 weeks before audible failure symptoms appear.
  • Weibull-based remaining-useful-life models produce a confidence interval rather than a single number, targeting component replacement at 85-90% of estimated life.
  • Unsupervised anomaly detection (isolation forests, VAEs) catches novel failure modes that haven't appeared in historical failure records, complementing supervised models.
  • McKinsey benchmark data cites 10-40% maintenance cost reduction and 20-50% downtime reduction as the achievable range for mature implementations.

Proof

Since 2015
shipping production software for data-heavy operations
RaftLabs delivery record
4.9/5
average client rating across delivered projects
Clutch, verified reviews
Fixed price
scope and cost agreed in writing before any development starts
Every RaftLabs engagement

Reactive maintenance is the most expensive kind

Predictive maintenance uses the sensor data your equipment already generates to spot degradation before it becomes failure. The machine gets serviced when the data says it needs it, not on a fixed calendar, and the breakdown never happens. That matters because the failure you do not see coming is the expensive one. Unplanned downtime runs anywhere from $5,000 to $50,000 per hour on a typical line, and far more on a high-throughput plant.

Industry benchmarks

fewer equipment breakdowns under mature predictive maintenance
~70%
Deloitte
less unplanned downtime versus calendar-based maintenance
30-50%
McKinsey
lower maintenance costs versus reactive and calendar programs
~25%
Deloitte

Capabilities

What we build

  • 01
    Failure prediction models

    FFT-based bearing fault frequency analysis and gradient-boosted models with SHAP explainability, trained on your equipment's specific failure modes.

    Built with
    XGBoost · SHAP
  • 02
    Real-time condition monitoring

    Kalman-filter denoised sensor ingestion with configurable informational/warning/critical alert thresholds by equipment criticality.

    Built with
    OPC-UA · MQTT
  • 03
    Remaining useful life estimation

    Weibull-based RUL confidence intervals targeting replacement at 85-90% of estimated life, with automated parts reorder integration.

  • 04
    CMMS and ERP integration

    Automated work orders with equipment ID, predicted failure mode, confidence score, and suggested action, closing the loop with post-maintenance feedback.

    Built with
    IBM Maximo · SAP PM
  • 05
    Sensor data pipelines

    Edge-processed FFT spectra reducing data volume by 100x, stored in a purpose-built time-series database with data-quality monitoring.

    Built with
    InfluxDB · TimescaleDB
  • 06
    Anomaly detection

    Unsupervised models (isolation forests, VAEs, LSTM reconstruction) catching novel failure modes 3-14 days before threshold-based alarms fire.

How we work

From scope to live predictive system

  1. Week 1
    01

    Sensor and equipment scoping

    We map your equipment types, current sensor infrastructure, and what downtime is costing you. You leave week 1 with a written scope document and a fixed-price quote.

  2. Weeks 2-5
    02

    Data pipeline and model design

    Sensor integration, feature engineering, and failure-prediction model architecture designed against your historical data.

  3. Weeks 4-11
    03

    Build and validate

    Models trained and validated against held-out failure events, with the dashboard and CMMS integration built in parallel.

  4. Weeks 12-14
    04

    UAT and go-live

    Maintenance teams trained on the alert workflow before production deployment. You leave with a validated v1 on one equipment class, then expand to more assets in later phases.

How we model your ROI before you commit

We do not quote a generic percentage and call it your return. Before you sign, we build the number from your operation.

Inputs are your downtime hours per asset per year, your production cost per hour, your emergency-versus-planned labour and parts premium, and your current preventive-maintenance spend.

The method is direct. We set your baseline annual downtime cost, then apply a reduction range derived from how well a model recalls your own historical failures on held-out data. We net out the cost of false positives, because an alert on healthy equipment still burns inspection time. A model that cries wolf is not free.

The output is a low, base, and high annual saving, with a payback estimate in months. If the honest number does not clear your hurdle rate, we will tell you predictive maintenance is not worth it for that asset yet.

Why us

Why manufacturers choose RaftLabs

  • 01
    Senior engineers build what they scope

    The engineers who assess your sensor infrastructure also build the solution. No bait-and-switch, no offshore handoff after the contract is signed.

  • 02
    Fixed price before development starts

    We scope the work, calculate the cost, and lock it in writing before any development starts.

  • 03
    Shipping production software since 2015

    We build data-heavy platforms for regulated and industrial operations. Real engagements across SaaS, fintech, healthcare, and logistics, not every one published as a named case study. Where a specific asset class is new ground, we say so and prove the models against your own failure history before you scale.

  • 04
    ROI modelled from your actual downtime cost

    We calculate expected return from your specific baseline, not generalised benchmarks.

  • 05
    Explainable predictions, not a black box

    SHAP feature importance shows your engineers exactly which signals are driving each prediction.

What clients say

What our clients say

Three-year average engagement. Founders and operators describing the work in their own words. No marketing varnish.

Gil Nugraha
Gil Nugraha
Indonesia flagIndonesia
Founder at UrShipper
I definitely recommend RaftLabs, especially to founders building complex platforms. They were transparent throughout the whole project.

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Frequently asked questions

The sensors required depend on the failure modes you want to predict. Rotating equipment is typically monitored with vibration accelerometers and bearing/winding temperature sensors. Hydraulic systems use pressure transducers and particle count sensors. Many failure modes can also be detected from existing PLC signals such as cycle time drift without adding new sensors.

For supervised models trained on labelled failure events, 12-24 months of sensor data containing confirmed failure instances is the minimum useful dataset, with at least 5-10 failure events per failure mode. For equipment with rare failures, transfer learning from similar equipment types or unsupervised anomaly detection bridges the data gap.

Unplanned downtime commonly costs $5,000 to $50,000 per hour in lost production on a mid-market line, and far more on a high-throughput plant. Deloitte reports that mature predictive maintenance cuts equipment breakdowns by around 70% and maintenance costs by about 25%. We model your own number before you commit: we take your current downtime hours per asset, your production cost per hour, and your emergency-versus-planned labour and parts premium, then apply a reduction range derived from how well the models recall your historical failures, net of the inspection cost of false positives. You get a low, base, and high annual saving with a payback estimate, usually 6 to 18 months. A focused pilot on one equipment class starts around $30,000 to $60,000 at a fixed price; a plant-wide platform grows into six figures over later phases.

Preventive maintenance services equipment on a fixed calendar, so it replaces parts that still have useful life and still misses failures that happen between intervals. Predictive maintenance watches condition signals and acts only when the data shows degradation. The trade-off to manage is false positives: an alert that sends a technician to healthy equipment costs inspection time, so we tune thresholds against the cost of a missed failure versus the cost of an unnecessary inspection for each asset class.

A focused pilot covering one equipment class, such as rotating assets on a single line, delivers a validated v1 in 10 to 14 weeks: sensor audit, data pipeline setup, model development, and CMMS integration. That first slice proves the models against your own failure history before you scale. Broader coverage across multiple equipment types and plants grows over later phases rather than shipping all at once.

Work with us

Have a predictive maintenance project?

Tell us your equipment types, current sensor infrastructure, and what downtime is costing you. We'll design the system and give you a fixed cost.

  • Scope and cost agreed before work starts. No surprises. No obligation.
  • Working prototype within 3 weeks of kickoff.
  • Pay by milestone. You see progress before each invoice.
  • 60-day post-launch warranty. Bug fixes, UI tweaks, and deployment support. No retainer.
  • All conversations are NDA-protected.