Energymascon
Application · Predictive Maintenance

Fix what's about to break. Not what already did.

Failure-mode models trained on years of operational telemetry — naming the part, the severity, and the time you have to act. Predictive maintenance, wired into the systems your reliability team already runs.

Pump P-104 · failure-mode modelPredicting
Remaining useful life · current confidence
14 days
Mode
Inner-race bearing
Failure thresholdnow
Severity 6.2
Confidence 91%
Spare in stock Yes
!
Recommended action
Schedule bearing replacement at next planned window (within 10 days). Work order WO-4128 drafted.
Home·Solutions·Applications·Predictive Maintenance
Where you are on the ladder

Four maintenance strategies. Wildly different bills.

Most plants run a mix. The question isn't "which one" — it's "which asset belongs on which rung", and how high you can move the critical ones.

Before it breaks

Predictive

Failure-mode models combine signals with operational context to flag what's about to break.

Relative cost per failure event
Reactive
Preventive
Condition-based
Predictive
How the model works

A model per asset class, not a black box per plant.

Generic anomaly detection ages badly. Models that know what a frac pump looks like in late-life — and what's different about a CNC spindle — get sharper with every catch.

  • Per asset class
    A frac pump's failure modes are not a CNC's. Models are tuned to the class, not the catalogue.
  • Operational context
    Duty cycle, load, ambient — fed in alongside vibration and current so the model sees what the machine sees.
  • Failure-mode aware
    Not 'something is wrong' — 'inner-race bearing damage, severity 6.2, escalating'. Tells the engineer what to fix.
  • Continuously retrained
    Operational feedback loops back into the model. Every confirmed catch — and every false alarm — improves the next call.
Failure-mode model · CNC spindle
Inputs
Vibration spectrumFFT · 25 kHz
Motor currentRMS · harmonics
Bearing tempRTD
Spindle loadController
Tool change cyclesMES
Coolant flowPLC
Model
Outputs
Failure modeInner-race
Severity6.2 / 10
RUL (days)14
Confidence91%
Spare neededBRG-7041
Crew skillL2 fitter
From sensor to work order

Sense · Model · Predict · Dispatch.

STEP 01

Sense

Vibration, current, thermal, acoustic, and process signals captured continuously at the asset.

STEP 02

Model

Failure-mode and remaining-useful-life models per asset class, tuned with operational context.

STEP 03

Predict

Severity scoring, ETA-to-action, and the specific failure mode named — not just an anomaly flag.

STEP 04

Dispatch

Work order auto-created in CMMS with context, spare part, and recommended crew skill.

Wired into your stack

The prediction is only useful if the right person sees it.

Auto-generated work orders land in the CMMS you already use — with the failure mode, severity, recommended spare, and crew skill attached. No new inbox. No alarm fatigue.

  • CMMS connectors: Maximo, SAP PM, Fiix, UpKeep, eMaint
  • Spare parts recommendations from your own MRO catalogue
  • Crew skill and shift routing baked into the dispatch
  • Audit trail from prediction → action → outcome
CMMS · auto-generated work order
WO-4128 · Predictive
Pump P-104 · DE bearing replacement
Priority · plan within 10d
Failure mode
Inner-race
Severity
6.2
RUL
14 days
Confidence
91%
Spare
BRG-7041 · in stock
Crew skill
L2 fitter
Window
Sat 04:00 – 08:00
Downtime
≈ 3.5h planned
Synced to Maximo · 14s ago
The outcome

Unplanned downtime cut by a third — sometimes a half.

−45%
Unplanned downtime
+24%
MTBF
−30%
MRO inventory
<9mo
Typical payback
Case Study · Anonymised

A tier-2 automotive supplier paid for the platform on a single avoided spindle failure.

14 days of bearing degradation modelled in time to plan a weekend changeover — instead of a Monday-morning crash that would have stopped six lines. Year-one ROI from that one event covered the rollout twice over.

14d
Lead time on the catch
Inner-race bearing damage, severity 6.2.
$840K
Avoided downstream cost
Including six-line shutdown exposure.
2.3×
Year-one ROI on the event
From one catch alone.
−41%
Unplanned downtime, y/y
Across the rest of the deployment.
Book a demo

Move your critical assets up one rung.

A 30-minute working session with a reliability engineer — calibrated to your critical-asset list and the failure modes that have hurt you before.