Industria Machina Prepared for Decker Manufacturing
Doc · D-VW-001 · Rev 0.1 · 2026-05-07

Predict the
failure

A predictive-maintenance platform built for Decker's fastener plant. Vibration sensors on every cold header and thread roller stream high-resolution data into machine-learning models that learn how each machine sounds when it's healthy — and flag developing wear or misalignment before it becomes failure.

Section 01 · What we monitor
01 / 03

Every machine, every cycle.

A vibration sensor on every machine, placed where a developing fault leaves its signature first. The full waveform, every cycle, every shift — no walking-around spot checks, no missed events between routes.

— Tuning Fork sensor  ·  VIB-X7

Compact, magnetic-mount accelerometer with on-board edge compute. Drops onto any steel surface, autoconfigures, and starts streaming within minutes — no rewiring, no shutdowns.

3-axis accelerometer · Magnetic mount · 25.6 kHz sampling · Edge compute
View full sensor spec sheet
Bay A · Heading 8 assets
Cold headers
  • National 2-1/4-S
  • Sakamura HM-12
  • Nedschroef HQB
Cycle 110–240 ppm
Channels Crank · Ram · Base
Bay B · Threading 6 assets
Thread rollers
  • Reed 2-die
  • Vencat HC-FL
  • Hartford 7-CM
Cycle 38–65 ppm
Channels Roll · Carriage · Base
Examples of failure modes we detect

Not just bearings and shafts. Mechanical, electrical, lubrication, process, and structural faults all leave a vibration fingerprint — and the platform's learned models flag patterns that don't fit any known signature, including failure modes we've never described before.

Bearing damage
Race, rolling-element, or cage fault
Misalignment
Coupling, shaft, or roll out of true
Imbalance
Rotor mass distribution drifting
Tool / die wear
Dies, rollers, taps, or cutters degrading
Gear-mesh defect
Tooth chip, scuffing, or backlash
Lubrication starvation
Oil film loss, contamination, or wrong viscosity
Mechanical looseness
Fasteners, mounts, foundations, joints
Process / load anomaly
Off-spec feedstock, pump cavitation, blockage
Electrical drive fault
Motor stator, rotor bar, or VFD instability
Structural resonance
Frame or piping mode lighting up
Unknown anomaly
Pattern outside the learned baseline — flagged even without a known signature
Section 02 · How it works
02 / 03

Sense. Learn. Predict.

Vibration is the first place a developing failure shows up — long before heat, noise, or a broken part. We instrument every machine, learn what healthy operation sounds like, and flag the drift before it becomes downtime.

01 Sense
Vibration sensors on every machine

High-resolution accelerometers capture the full mechanical signature of each asset — every cycle, every rotation, every impact. The data is the ground truth: what the machine is actually doing right now.

02 Learn
Models learn each machine's healthy baseline

Advanced machine-learning models build a per-asset profile of healthy operation from real production data. No manual tuning, no per-machine thresholds — the system learns what normal looks like for this header, this roller, today.

03 Predict
Drift becomes a verdict, hours before failure

As wear or misalignment develops, the model recognizes the drift and surfaces it as a clear health verdict — with enough lead time to schedule the fix on your terms, instead of reacting to an unplanned stoppage.

Fused · Verdict
A single health score
0 – 100

Every machine, every chunk of data — distilled into one number and a clear verdict: Healthy Watch Elevated Fault. No spectrograms to read, no thresholds to set. The dashboard tells you which assets are drifting, what the suspected cause is, and how much runway you have before it matters.

Hours of lead time
before unplanned downtime
Section 03 · What every machine tells you
03 / 03

Verdict, evidence, history.

Each machine page is built around three questions a maintenance lead actually asks: what's wrong, why do we believe that, and how did we get here? Everything else on the page is in service of those three answers.

01
Verdict

A 0–100 health score and a clear verdict — Healthy, Watch, or Fault — paired with a plain-English recommendation and a window. "Take this asset out of service before next shift" instead of "anomaly score 0.71."

02
Evidence

Live three-axis waveform, power-spectral density, envelope spectrum, and a ranked frequency match. Switch axes, change time-base, zoom into the resonance band — the math is on tap if you want to check our work.

03
History

Health over the last 24 hours, 7 days, 30 days, or 12 months. See the maintenance event that pulled an asset back from a fault three months ago — or the slow decline that hasn't been addressed yet.

Open the demo

Six machines. Three axes. Real DSP.

The waveforms are synthesized; the spectra and envelope analysis are computed from them with real FFT and Welch math, not painted on. Click any asset to walk through verdict, evidence, and history.

Open live dashboard