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THE TRUST ARCHITECTURE OF INDUSTRIAL AI

Prediction ≠ Outcomes

Agents prescribe. Operators validate.
Leaders govern outcomes — not reports. Industrial Agentic AI, delivered by PlantOS™.
42984

Prescriptions
Generated till date*

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up to

99%

Prescriptions
Acted Upon

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up to

63%

Reduced Cost of
maintenance/unit

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up to

2%

Reduced Cost
of Energy/unit

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up to

2.5%

Increased
Utilization Rate

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881

Plants
Digitalized Globally

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140,641

Unplanned
Downtime Hours
Eliminated*

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*Note – Date as of March 17, 2026 Source- PlantOS™ Digital Reporting System – User-validated True Positives & False Negative Rate
PlantOS™ | The 15-Product Industrial AI Platform | Infinite Uptime
THE OUTCOME GAP

Industrial operations have never had more data.
Outcomes remain elusive.

The market has delivered capability in layers — sensors, dashboards, integrated
monitoring, advanced analytics. Each a step forward. None of them enough.

Because all of it stops at the alert. No governance. No validated action. No closed loop.

What Competitors Deliver
SENSOR Raw Data Plots
01

Real-time machine signals captured continuously.

DASHBOARD Visualization
02

Visual asset health and performance KPIs.

INTEGRATED Monitoring View
03

Unified cross-system monitoring and context.

ANALYTICS Predictive + Prescriptive
04

AI prescribes actions. Operators validate outcomes.

STOPS HERE
THE GAP

The Outcome Gap

The gap between what AI recommends and
what actually gets done - that's the Outcome Gap.

The reason 95% of industrial AI pilots never scale.

- MIT SMR, 2025
PLATFORM ARCHITECTURE

Six Layers. One
99% Trust Loop.

PlantOS™ is organised across six technology tiers. T1–T3 form the Infrastructure Layer — data and execution foundation. T4–T6 form the Value Layer — where AI, prescriptions, and governed decisions generate measurable ROI. Data flows upward. Intelligence flows back down. T6 loops back into T3, closing the prescription-to-execution loop across the fleet.

DATA FLOWS UP
T6
VALUE

Strategic Governance COO · CFO · CDO

12 KPIs Benchmarked
Group ROI / Plant
Board-ready Reports
SA
AGENT
7 Inputs Synthesized
8–12 Day RUL Extension
3–4 Stoppages Avoided/yr
T5
VALUE
15–25% PM Cost Reduction
Evidence-based CAPEX Decisions
Zero Critical Stockouts
T4
VALUE

Analytics & Prescription

18–25 Days Advance Warning
3–8% Energy Reduction
10–20% Inventory Reduction
T3
INFRA
60s Auto Work Orders
30–40% Cycle Time Reduced
20–30% Prescription Accuracy Uplift
T2
INFRA

Edge & Connectivity

Multi-protocol Supported
100% Tech Onboarded
Zero Rip-and-Replace
T1
INFRA
100% Asset Coverage Day 1
<2 Weeks Per Plant
24/7 Expert Monitoring
INTELLIGENCE FLOWS DOWN
Closes the loop: Prescription Action Validation
Prescriptive Maintenance
Process & Energy Efficiency
AI Orchestration
THE FULL PLANTOS™ PRODUCT CATALOG

One Platform. Six Layers.
15 Products. Live Today.

Explore the architecture. Every layer, every product, built to close the loop.
Click any product to see exactly how it delivers outcomes.

T6

Strategic Governance

VALUE

The executive layer — tracking prescription accountability, quantifying business impact, and benchmarking across the fleet.

Prescription Engine — Multi-Site ROI Governance

The governance layer tracking prescription completion and quantifying business impact across the fleet.

AI Orchestration
WHAT IT IS
  • The governance layer receiving prescriptions from Plant Fusion and Process Prescript
  • Tracks whether corrective actions were completed and quantifies business impact
  • Enables fleet-level benchmarking across multiple plants
  • Answers the executive question: "Are our AI recommendations being acted on, and what is the business value?"
OUTCOMES DELIVERED
  • 100% prescription accountability — every recommendation tracked to outcome
  • Multi-site benchmarking across SHC, PM completion rate, and MTTR
  • Plant-by-plant ROI attribution across 12 KPIs — board-ready reports auto-generated
  • Closes the loop back to T3 — validated outcomes retrain AI prescriptions across the fleet
THE PROBLEM
  • Prescriptions acknowledged but not executed deliver zero ROI
  • Executives need accountability — not dashboards of unacted alerts
  • Multi-plant operators need apples-to-apples benchmarking across sites
  • Board-level reporting requires verified, attributable ROI per plant
HOW IT WORKS
Step 1
Receives all prescriptions from Plant Fusion and Process Prescript
Step 2
Tracks corrective action completion with timestamps and records
Step 3
Quantifies business impact per prescription — energy, downtime, quality
Step 4
Fleet benchmarking compares SHC, PM rate, MTTR across plants
SA

Scheduling Agent

AGENT

The orchestrating intelligence — an autonomous multi-agent system synthesising risk, resource, production, and spares constraints.

Multi-Agent Constraint Optimizer

Multi-agent AI system optimising maintenance schedules across competing constraints.

AI Orchestration
WHAT IT IS
  • A multi-agent AI system automatically optimizing maintenance schedules
  • Synthesises risk, resource, production, and spares insights for most optimal outcomes
  • Autonomous orchestrator sitting between Plant Fusion decisions and AI Worx execution
  • Launching June 2026
OUTCOMES DELIVERED
  • 7 inputs synthesised — risk, resource, production, spares, lead time, criticality, cost
  • 8–12 day average RUL extension via intelligent speed reduction
  • 3–4 unplanned stoppages avoided per plant per year
  • Human-gated governance — agent cannot override safety or production priorities
THE PROBLEM
  • Human schedulers cannot optimally balance 7+ competing constraints in real time
  • Production schedules, spare availability, technician capacity, and asset risk shift continuously
  • Static maintenance schedules create either production conflict or excess downtime risk
  • Multi-plant operators need automated scheduling that respects governance rules
HOW IT WORKS
Step 1
Synthesises 7 inputs: asset risk, production schedule, technician availability, spares stock, lead times, criticality, cost
Step 2
Multi-agent architecture — specialised agents for each constraint class
Step 3
Continuously re-optimises as conditions change
Step 4
Recommends speed reductions to extend RUL when optimal
Step 5
Outputs governed, approval-gated schedule changes — never bypasses human authority on safety
T5

Decision & Planning

VALUE

The strategic layer — turning condition and process intelligence into defensible, risk-aligned plant decisions.

Plant Fusion – Maintenance

Decision authority that continuously prescribes a dynamic, risk-first PM program.

Prescriptive Maintenance
WHAT IT IS
  • A decision authority that continuously prescribes a dynamic PM program and asset strategy
  • Replaces static time-based plans with ISO-aligned, risk-first PM logic
  • Gives Reliability, Maintenance, and Plant leadership defensible logic for what, how, and when to maintain
  • Purpose: OPEX reduction with lower unmanaged risk
OUTCOMES DELIVERED
  • 15–25% PM cost reduction via over-maintenance detection on low-risk assets
  • 20–35% MTBF improvement driven by cross-asset correlation
  • 5–10% planned replacement CAPEX deferral through better run/repair/replace decisions
  • 3–7% total cost of ownership reduction across maintenance, spares, and risk
  • ISO-aligned governance — every recommendation traceable with audit trail
THE PROBLEM
  • Plants have sensors, APM, CMMS, ERP — yet still suffer surprises and over-maintenance
  • Fixed OEM PM schedules are worst-case assumptions applied uniformly across asset classes
  • Spreadsheet heuristics and calendar rules produce both over- and under-maintenance
  • Leaders need defensible, risk-aligned logic — not one-size-fits-all schedules
HOW IT WORKS
Step 1
Ingests asset registers, failure history, and condition data into a canonical foundation
Step 2
Runs CI, RBI, RCA, RCM, FMEA, PM optimisation, LCC — quantifying risk per failure mode
Step 3
Selects strategy per failure mode: TBM, CBM, on-condition, run-to-failure, or redesign
Step 4
AI layer gated by rules — cannot override safety or governance thresholds
Step 5
Pushes approved PM changes into CMMS/EAM with full audit trails

Plant Fusion – Spares

Governed engine prescribing risk-aligned min/max levels and ordering triggers.

Prescriptive Maintenance
WHAT IT IS
  • A governed decision engine prescribing risk-aligned min/max levels and ordering triggers
  • Replaces static ABC classifications and manual min/max rules with risk-fusion logic
  • Fuses failure behaviour, lead times, and criticality into inventory decisions
  • Eliminates over-stocking and critical stockouts simultaneously
OUTCOMES DELIVERED
  • Zero critical stockouts on assets with active RUL tracking in Plant Fusion
  • 20–40% reduction in emergency procurement and expedited logistics cost
  • Safety-critical items remain mandatory — reductions only applied where risk is quantified
  • Supplier reliability tracking — actual vs. promised lead time per vendor
THE PROBLEM
  • ERP ABC/XYZ rules are cost-only — ignore risk, reliability, and lead time
  • Over-stocking low-criticality parts ties up capital; under-stocking critical parts stops plants
  • Emergency procurement and expedited logistics inflate OPEX
  • Safety-critical inventory cannot be touched without governed approval
HOW IT WORKS
Step 1
Uses same risk foundation as Plant Fusion — Maintenance (PoF/CoF, MTBF/MTTR, lead time, ABC)
Step 2
Calculates risk-aligned stocking: mandatory safety-critical, optimised production-critical, run-to-vendor low-risk
Step 3
AI models learn actual consumption, failure clusters, and supplier lead time variability
Step 4
Detects irrational patterns — emergency orders on "low-criticality" parts
Step 5
Pushes recommended min/max into ERP/CMMS with safety-critical items gated by human approval

Plant Fusion – Decision

Strategic decision layer synthesising health, process, energy, and spend into one plant view.

AI Orchestration
WHAT IT IS
  • The strategic decision layer synthesising equipment health, process, energy, and maintenance spend
  • One plant view designed for plant directors and COOs
  • Unifies operational intelligence across PlantOS™ into a single executive lens
  • Links maintenance decisions to production, throughput, energy, and OEE
OUTCOMES DELIVERED
  • Plant-level OPEX vs. operational risk visibility — single view linking maintenance to production
  • CAPEX decisions backed by AI failure probability forecasts and asset remaining life estimates
  • Connects maintenance decisions to production throughput, energy cost, and OEE
  • The plant director's command view — not just another maintenance KPI dashboard
THE PROBLEM
  • Individual asset tools can't answer plant director questions on cost, concentration, or replacement economics
  • Plant leadership needs one view connecting maintenance to business outcomes
  • CAPEX decisions require failure probability forecasts and asset remaining life estimates
  • Maintenance KPIs alone don't tell the production story
HOW IT WORKS
Step 1
Unifies outputs from Equipment Prescript, Process Prescript, Plant Fusion — Maintenance and Spares
Step 2
Synthesises condition, process, energy, and spend into plant-director dashboards
Step 3
Links OPEX and operational risk in a single view
Step 4
Surfaces asset concentration risk and replacement economics
Step 5
Feeds strategic governance at T6
T4

Analytics & Prescription

VALUE

The AI brain — converting condition and process data into specific, evidence-backed prescriptions.

Equipment Prescript

AI engine converting vibration and condition signatures into structured mechanical fault prescriptions.

Prescriptive Maintenance
WHAT IT IS
  • The AI Prescription engine converting vibration and condition signatures into structured mechanical fault prescriptions
  • Combines spectrum analysis, envelope detection, and bearing/gear mesh analysis
  • Outputs plain-language, machine-readable prescriptions with RUL and urgency class
  • Feeds directly into Plant Fusion — Maintenance and AI Worx
OUTCOMES DELIVERED
  • 18–25 days average advance warning vs. 7–10 day industry benchmark
  • Zero manual interpretation — fault type, location, RUL, and urgency in every prescription
  • Covers unbalance, misalignment, bearing defects, gear defects, looseness, pump flow issues
  • Feeds directly into Plant Fusion — Maintenance as condition input for PM strategy
THE PROBLEM
  • Raw vibration spectra require expert interpretation — most plants can't scale specialists across every asset
  • Manual fault diagnosis is slow, inconsistent, and misses subtle signatures
  • Without structured prescriptions, AI detections don't convert into work orders
  • RUL estimates are essential for run/repair/replace decisions
HOW IT WORKS
Step 1
Consumes condition signatures from Critical Sensor Kit, SenseLink, and IDRS
Step 2
Applies spectrum analysis, envelope detection, bearing defect frequency analysis
Step 3
Gear mesh and sub-harmonic analysis for complex drivetrains
Step 4
Classifies fault type, location, RUL, and urgency class per detection
Step 5
Outputs structured prescription consumable by Plant Fusion and AI Worx

Process Prescript

AI prescription layer on Process Canvas — turning visibility into operator guidance.

Process & Energy Efficiency
WHAT IT IS
  • The AI prescription layer on top of Process Canvas — transforming visibility into operator guidance
  • Four domain modules: Energy, Throughput, Yield, and Quality
  • Issues specific, evidence-backed corrective actions like a clinical prescription
  • Quantified expected impact per prescription with historical evidence
OUTCOMES DELIVERED
  • 3–8% energy cost reduction — prescriptions delivered before energy is wasted
  • 1–3% throughput improvement by eliminating bottlenecks before they constrain production
  • Multi-variable correlation prevents single-sensor false positives and alert fatigue
  • Every prescription includes deviation, action, expected impact, and historical evidence
THE PROBLEM
  • Process anomalies cause energy waste, yield loss, and quality failures before operators detect them
  • Multi-variable correlations invisible in single-sensor dashboards
  • Operators need evidence, not alerts — specific action with expected impact
  • Single-sensor alerts cause false positives and alert fatigue
HOW IT WORKS
Step 1
Sits on top of Process Canvas — requires 3–6 months of data baseline to activate
Step 2
Energy Module — monitors SHC/SPC, prescribes kiln feed, burner position, cooler fan adjustments
Step 3
Throughput Module — ranks bottlenecks, prescribes mill loading, separator speed, kiln speed
Step 4
Yield Module — detects drift in clinker LSF, silica ratio, free lime — 30–60 min early warning
Step 5
Quality Module — predicts specification deviation, prescribes blending or process adjustments
T3

Platform & Execution

INFRA

The operational layer — where raw data becomes structured intelligence and AI prescriptions become executed work.

Process Canvas

Operational intelligence platform converting plant historian data into structured live KPIs.

Process & Energy Efficiency
WHAT IT IS
  • The operational intelligence platform that converts DCS/PLC/SCADA/historian data into structured live KPIs
  • Delivers role-specific dashboards, AnalytiX workspace, and downtime attribution
  • The mandatory intake layer for Process Prescript — prerequisite for AI process prescriptions
  • Delivers value from day one during commissioning, before AI prescriptions activate
OUTCOMES DELIVERED
  • Zero manual dashboard rebuild — live views update straight from historian
  • One unified operational picture replacing multiple disconnected screens
  • CEMLine vertical installer — pre-built cement KPI pack, deployment in days not weeks
  • Multi-plant fleet benchmarking when deployed as part of Plant Enterprise
  • Real-time KPI updates direct from DCS/historian — no manual extraction
THE PROBLEM
  • Plants generate enormous DCS data but lack a layer converting it into role-appropriate intelligence
  • Engineers spend 2+ hours daily manually rebuilding Excel dashboards
  • Process Prescript cannot activate without the structured data baseline Canvas provides
  • Multiple disconnected operational screens prevent a unified plant view
HOW IT WORKS
Step 1
Connects to DCS, PLC, SCADA historians (PI System, OSIsoft), MES/LIMS via AI Integration
Step 2
Maps raw tags to structured KPI models — SHC, SPC, OEE, throughput, energy intensity
Step 3
Live KPI computation continuously — no scheduled refresh, no manual trigger
Step 4
AnalytiX workspace enables drag-and-drop time-series comparison for deviation diagnosis
Step 5
Downtime attribution captures cause codes building the historical baseline for AI models

AI Worx

Maintenance execution layer closing the loop between AI prescriptions and real work.

Prescriptive Maintenance
WHAT IT IS
  • The maintenance execution layer of PlantOS™ — closing the loop between AI prescriptions and real work
  • Converts Plant Fusion and Process Prescript outputs into governed, tracked work orders
  • Native mobile app for field technicians with full audit trail and compliance support
  • Coexistence layer — not a replacement for SAP PM or IBM Maximo
OUTCOMES DELIVERED
  • 100% of AI prescriptions tracked to work order status — zero silent drop-offs
  • Criticality-based auto-escalation ensures high-risk tasks never slip through
  • Auditable trail for every PM change, technician action, and completion
  • Execution feedback improves prescription quality with each cycle
  • Multi-location support — manage work orders across multiple plant units from one instance
THE PROBLEM
  • Most industrial AI programmes fail in the execution gap — recommendations lost in WhatsApp and Excel
  • Without structured work order conversion, AI prescriptions remain suggestions
  • Completion data must feed back into AI models for continuous improvement
  • Plants without a strong CMMS need a native execution layer
HOW IT WORKS
Step 1
Approved Plant Fusion PM changes and Process Prescript actions flow in as work order inputs
Step 2
Structured work orders generated with asset, task, priority, duration, and safety instructions
Step 3
Distributed to technicians via mobile app with checklists and asset history
Step 4
Completion data feeds back into Plant Fusion asset record and AI model retraining
Step 5
Overdue high-criticality tasks auto-escalate based on Plant Fusion risk level

DigiLogBook

Digital replacement for paper shift logs — structured handover and field observation capture.

Prescriptive Maintenance
WHAT IT IS
  • Digital replacement for paper shift logs — structured shift handover and field observation capture
  • Mobile-first capture with photo, voice-to-text, and structured form entries
  • Makes operator observations AI-accessible in PlantOS™
  • Preserves institutional knowledge before retirement walks it out the door
OUTCOMES DELIVERED
  • Zero paper logbooks — 100% of shift observations digitized and searchable
  • Operator institutional memory preserved as AI-accessible context
  • 20–30% improvement in Equipment Fault Prescription accuracy from operator observation context
  • Reduced false positive prescriptions through human-in-the-loop context
THE PROBLEM
  • Paper logbooks trap observations in unsearchable silos
  • Critical operator context lost at retirement — institutional memory evaporates
  • AI fault prescriptions without human context produce false positives and alert fatigue
  • Shift handover gaps cause avoidable incidents and rework
HOW IT WORKS
Step 1
Operators record observations, equipment readings, and adjustments via mobile
Step 2
Photo capture, voice-to-text, and structured entry forms standardise input
Step 3
Entries become AI-accessible — enriching Plant Fusion and Process Prescript
Step 4
Searchable across shifts, assets, and time — permanent institutional record
Step 5
Feeds operator context directly into prescription accuracy algorithms

AI Integration

Bidirectional integration layer connecting PlantOS™ with SAP, Oracle, Maximo, MES, LIMS.

AI Orchestration
WHAT IT IS
  • Bidirectional integration layer connecting PlantOS™ with SAP PM, Oracle EAM, IBM Maximo, MES, LIMS, and custom ERP
  • API-first architecture with full Swagger/OpenAPI documentation
  • MCP Protocol support for enterprise IT teams
  • The choice for plants with strong existing CMMS infrastructure
OUTCOMES DELIVERED
  • ERP purchase orders triggered automatically by AI-detected RUL thresholds
  • MES production orders enrich Process Canvas KPIs with live context
  • Zero parallel data entry — AI Worx and SAP PM stay synchronized automatically
  • MCP Protocol support for modern AI-native integration
THE PROBLEM
  • Enterprises have massive investments in SAP, Oracle, Maximo — AI must coexist, not replace
  • Parallel data entry across AI and CMMS creates errors and slows execution
  • Quality events in LIMS must close the loop back into Process Prescript
  • Production context from MES must enrich process KPIs in real time
HOW IT WORKS
Step 1
REST APIs expose PlantOS™ prescriptions to enterprise systems
Step 2
Plant Fusion recommendations trigger SAP PM work orders automatically
Step 3
LIMS quality results flow back to close the Process Prescript — Quality loop
Step 4
MES production orders enrich Process Canvas KPIs with live context
Step 5
Full Swagger documentation for enterprise IT integration teams
T2

Edge & Connectivity

INFRA

The connective tissue — secure, multi-protocol data transmission from plant floor to PlantOS™.

EdgeIU

Process Edge Intelligence Unit capturing temperature, pressure, and energy data via tag reading.

Process & Energy Efficiency
WHAT IT IS
  • The Process Edge Intelligence Unit capturing temperature, pressure, and energy data via tag reading
  • Three variants: EDGEIU-PLC, EDGEIU-DCS, and EDGEIU-Touch
  • Fits seamlessly into any existing control architecture
  • Secure, continuous data transmission into the PlantOS™ collaborative AI ecosystem
OUTCOMES DELIVERED
  • Multi-protocol support across every industrial asset class
  • 100% technology onboarding with zero plant downtime
  • Zero rip-and-replace deployments — existing control architecture fully preserved
  • Secure, continuous data transmission validated for enterprise IT/OT requirements
THE PROBLEM
  • PlantOS™ AI is only as good as the plant data it can securely access
  • Most control architectures use proprietary protocols that block AI integration
  • Plants resist rip-and-replace of existing PLC/DCS investments
  • IT/OT security concerns block many conventional edge solutions
HOW IT WORKS
Step 1
Reads tags directly from existing PLC, DCS, or SCADA systems
Step 2
Three form factors match different control architecture types
Step 3
Multi-protocol support across all major industrial protocols
Step 4
Encrypted, continuous transmission to the PlantOS™ cloud and on-premise stack
Step 5
Deploys without interrupting plant operations or control logic
T1

Sense & Ingest

INFRA

The foundation layer — complete condition data capture from every critical rotating asset.

Critical Sensor Kit

Five purpose-built sensors providing complete critical rotating asset coverage.

Prescriptive Maintenance
WHAT IT IS
  • Five purpose-built sensors providing complete critical rotating asset coverage
  • Each sensor matched to a specific deployment context, machine class, or criticality profile
  • Feeds raw vibration, temperature, and RPM data directly into PlantOS™ Equipment Prescript
  • Covers virtually all industrial rotating equipment scenarios from one integrated kit
OUTCOMES DELIVERED
  • 100% critical asset visibility from day one — no asset left unmonitored
  • <2 hours per asset commissioning with validated signal quality at installation
  • Sub-harmonic fault detection weeks before breakdown via high-resolution spectrum analysis
  • RPM-normalised analysis for VFD-driven assets — no external tachometer required
  • Every detection feeds Plant Fusion — Maintenance for automatic risk re-assessment
THE PROBLEM
  • Most plants have patchy sensor coverage — critical assets remain blind spots
  • Wired sensors impractical for retrofit; wireless often lacks resolution for fault classification
  • Hazardous zones and high-temperature assets typically excluded from monitoring
  • Without high-resolution spectrum data, AI fault classification is unreliable
HOW IT WORKS
Step 1
vEdge 3XTURPM — Wired, 12,800 LOR spectral resolution for highest-criticality assets
Step 2
FitMachine 3XT / 3XT Ex — Battery-powered wireless MEMS (2–5 year life), ATEX variant for hazardous zones
Step 3
vSense 1XT — Piezoelectric sensor, -40 to 130°C, RPM range 2–3,900
Step 4
vSense 3XTRPM — Dual-channel DIN-rail edge node monitoring 2 machine points simultaneously
Step 5
All five feed a single Equipment Prescript engine for unified fault classification

IDRS Managed Diagnostics

Managed reliability service combining offline CBM, online oil monitoring, and RCFA.

Prescriptive Maintenance
WHAT IT IS
  • A managed reliability service combining offline CBM, online oil monitoring, and Root Cause Failure Analysis
  • Integrates six complementary diagnostic technologies into one unified service
  • Delivers structured condition data directly into PlantOS™ as inputs for Plant Fusion — Maintenance
  • Field execution by certified partner network and/or customer personnel
OUTCOMES DELIVERED
  • Six technologies: oil analysis, thermography, manual vibration, ultrasonic, NDT, MCSA
  • 48-hour SLA for RCFA reports — prescriptive, not just descriptive
  • 100% of assets receive severity class at commissioning — mandatory for AI Worx triage
  • Online oil monitoring tracks contamination and wear metals between scheduled changes
  • Post-RCFA findings automatically update PlantOS™ PM optimisation logic
THE PROBLEM
  • Many critical assets cannot be continuously monitored due to environment, access, or cost constraints
  • Fills the coverage gap with structured periodic diagnostics and managed RCFA
  • Provides the condition data Plant Fusion requires for risk-aligned PM decisions
  • Eliminates the need for plant-side vibration analyst headcount during ramp-up
HOW IT WORKS
Step 1
Structured measurement routes defined per asset by criticality and failure mode
Step 2
Periodic field data collection via calibrated diagnostic instruments
Step 3
Oil samples analysed for contamination, wear metals, and degradation trends
Step 4
RCFA performed on failed components — root cause identified and prevention built into PM strategy
Step 5
All findings feed the PlantOS™ asset register and update Plant Fusion failure mode libraries

INDUSTRIES

Proven Across Heavy Industries

Deployed across 881 plants globally — from SAG mills in Kazakhstan to cement kilns in India.

2026: The Trust Architecture of
Industrial AI.

Prediction ≠ Outcomes. Governance is the missing layer.

See how PlantOS™ closes the Outcome Gap – prescription, validation, and governance in one loop.