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PredictAint
Physics-Grounded Machine Learning

Predictive AI & Vision Architecture: Grounded in Physics

Industrial machinery does not fail at random. Equipment communicates degradation weeks before functional breakdown through vibration frequency shifts, thermal signatures, and visual wear. Here is how our architecture detects and acts on it.

Telemetry Inputs

What Data Actually Trains & Feeds the Models?

PredictAint does not rely on generic language models for equipment health. We process real high-frequency industrial physics streams:

Multi-Axis Vibration & FFT Spectra

Tri-axial acceleration and velocity RMS across 10Hz to 10kHz. Fast Fourier Transform (FFT) harmonics detect inner/outer raceway bearing faults, gear mesh degradation, and rotor imbalance.

Thermal Gradient Telemetry

Continuous surface temperature deltas across bearing housings, electrical contactors, and motor windings to identify friction spikes and phase overload before smoke occurs.

Visual Computer Vision Streams

Edge CCTV and industrial inspection camera frames analyzed for structural crack growth, hydraulic oil weeping, conveyor misalignment, and missing safety guards.

Motor Current Signature (MCSA)

CT clamp current telemetry measuring sideband frequencies to pinpoint broken rotor bars, stator winding asymmetry, and mechanical load fluctuations non-invasively.

Operating Context & Meters

Machine run hours, production piece counts, start/stop thermal cycles, and ambient humidity from plant SCADA or manual meter logs to contextualize raw sensor readings.

Historical Work Order Failure Codes

Closed work order failure taxonomy (ISO 14224 compliant: failure mode, cause, remedy, parts consumed) to ground AI diagnoses in historical plant ground truth.

Deployment Timeline & Cold-Start

Does It Need Years of Your Data First, or Work on Day One?

One of the most common enterprise objections is: “We don’t have 5 years of clean sensor data, so how can AI predict anything?”

PredictAint solves this cold-start dilemma through a dual-phase model architecturethat delivers value immediately while learning your plant's unique characteristics over time.

DAY 1

Pre-Trained Physics & ISO Standards

Out of the box, models are pre-calibrated with ISO 10816 vibration severity bands, bearing manufacturer (SKF, Timken, NSK) defect frequencies, and standard motor thermal limits. Basic protection operates immediately.

DAYS 1–30

Dynamic Operating Baseline Ingestion

The edge gateway samples your equipment through normal production shifts, recording baseline operating signatures across varying load levels, ambient temperatures, and product runs.

DAY 30+

Asset-Specific Anomaly & RUL Scoring

Models transition from generic thresholds to predictive statistical deviation. The system calculates Remaining Useful Life (RUL) and recommends maintenance interventions 2 to 8 weeks ahead.

Operational Realism

What Happens on a False Positive?

Alarm fatigue kills software adoption. If a system triggers 20 false alarms a day, technicians ignore it. Here is how PredictAint prevents that:

1. Transient Suppression Filter

A transient vibration spike caused by a crane dropping a billet or a momentary motor startup inrush is automatically filtered out. An alarm requires persistent statistical anomaly across consecutive sample windows.

2. Multi-Sensor Cross-Verification

High vibration on a pump bearing is cross-referenced with thermal and current telemetry. If vibration spikes but temperature and current are nominal, the system classifies it as sensor drift or loose mount before flagging a breakdown.

3. 1-Tap Technician Feedback

When a technician inspects the asset, they tap one feedback button on mobile: “Defect Verified”, “Operational Noise”, or “Sensor Adjustment”. The model dynamically retunes thresholds, preventing repeat false alarms.

On-Premise Infrastructure

Edge Compute & Hardware Specifications

For manufacturing environments with strict data sovereignty, air-gapped facilities, or high-bandwidth camera streams, PredictAint executes on-premise at the edge.

Deployment TierTarget WorkloadHardware ProfileConnectivity
Tier 1: Cloud NativeCMMS, work orders, PMs, mobile executionZero local hardware required. Any modern browser or Android phone.Standard HTTPS / TLS 1.3
Tier 2: Edge IoT GatewayVibration, thermal, sensor stream samplingIndustrial fanless DIN-rail IPC (Intel Core i5 / x86, 16GB RAM, 256GB SSD)OPC-UA / MQTT / Modbus TCP
Tier 3: Vision AI ApplianceMulti-camera real-time visual inspectionNVIDIA Jetson Orin Industrial or 1U GPU Edge Server (RTX 4000 Ada, 32GB)Dual-NIC isolated camera VLAN + LAN
Dual-NIC architecture isolates factory OT networks from corporate IT networks.Review Industrial Security & Isolation Architecture →
Proven Industrial Ergonomics

Evaluate Predictive Maintenance for Your Facility

Schedule a technical discussion with our reliability engineering team to review your asset failure modes, sensor readiness, and pilot scope.

100% Data Ownership
7–14 Day Typical Plant Go-Live
Direct Engineering Onboarding