See It Work
See It Work
SYSTEM: OPERATIONAL OT/IT CONNECTORS: 150+ AUTONOMOUS OPERATION: 15+ DAYS GOVERNED AUTONOMY: ENFORCED AUDIT TRAIL: IMMUTABLE INDUSTRIES: ASSET-INTENSIVE & MISSION-CRITICAL DEPLOYMENT: 3-6 MONTHS VIA APEX CONTROL LOOPS: 3,400+ SYSTEM: OPERATIONAL OT/IT CONNECTORS: 150+ AUTONOMOUS OPERATION: 15+ DAYS GOVERNED AUTONOMY: ENFORCED AUDIT TRAIL: IMMUTABLE INDUSTRIES: ASSET-INTENSIVE & MISSION-CRITICAL DEPLOYMENT: 3-6 MONTHS VIA APEX CONTROL LOOPS: 3,400+

Condition Monitoring · POWER UTILITIES

ID fans that flag failure before they take the unit offline.

Induced draft fans run continuously, draw significant power, and pull entire process units down when they fail. The XMPro AO Platform monitors vibration, temperature, energy use and airflow live — predicting wear, surfacing efficiency loss, and keeping the fan inside its environmental envelope.

THE CHALLENGE

What's getting in the way today.

ID fan monitoring compounds five pressures:

ISSUE 01 OPEN

Equipment wear and tear

Continuous operation degrades bearings, blades and motor components; failures arrive as unplanned stops, not as scheduled events.

ISSUE 02 OPEN

Energy efficiency

ID fans consume significant plant energy. Drift in fan speed, airflow or motor efficiency hides inside the aggregate utility bill.

ISSUE 03 OPEN

Predictive maintenance

Continuous operation and criticality make running-asset condition assessment hard — yet calendar-based maintenance either over-services or misses degradation.

ISSUE 04 OPEN

Operational downtime

Unplanned ID fan failure stops the whole process unit, with cascade costs across upstream and downstream operations.

ISSUE 05 OPEN

Environmental compliance

Fans must operate inside emission and process limits; drift outside the envelope triggers reporting and risk exposure.

THE SOLUTION

Induced Draft Fan Monitoring — how it works.

Continuous monitoring of vibration, noise, temperature, pressure, airflow, fan speed and energy use — with predictive maintenance models tuned for ID fan failure modes.

Real-time data integration Predictive analytics Anomaly detection Automated recommendations Operational dashboards Digital twin simulation

The platform ingests sensor data continuously — vibration and noise (mechanical imbalance), temperature and pressure (operational state), energy consumption (efficiency drift), fan speed and airflow (ventilation effectiveness), and bearing and blade condition (wear patterns). A digital twin of the ID fan lets reliability engineers simulate parameter changes and assess their impact on health and efficiency before applying them. ML models predict maintenance needs at the component level, automated alerts surface anomalies with ranked recommendations, and continuous monitoring of operational parameters keeps the fan inside its environmental-compliance envelope.

SEE IT IN YOUR ENVIRONMENT

Scope this for your operation.

Tell us about your fleet, your control maturity and the lever that matters most. We’ll map this use case to your starting point.

WHAT CHANGES

What this looks like in operation.

Predictable uptime

Component degradation surfaces days ahead of stoppage, moving work into planned outages rather than emergency response.

Lower energy cost

Per-asset efficiency baselines turn fan energy use into a leverable line item, with operator and maintenance levers tied to the same numbers.

Environmental compliance

Continuous monitoring keeps operational parameters inside emission limits, producing the regulator evidence trail as a by-product of normal operations.

DEPLOYED IN

Built for these industries.

PRODUCTION-PROVEN

Not a concept. In production.

XMPro is deployed at Tier 1 global operators across asset-intensive and mission-critical industries — delivering measurable results across predictive maintenance, process optimisation and operational intelligence.

VERIFIED RESULT — OIL & GAS
$16M Saved every year
18% Reduction in field service trips
95% Reduction in maintenance planning

Customer Case Study

Using XMPro, a global oil and gas supermajor rapidly composed and deployed an intelligent oil well maintenance solution in just three months -- achieving over $8 million in calculated value within the first six months.

VERIFIED RESULT — MINING
$10M Saved every year
30% Reduction in conveyor downtime
9,000t Saved every month

Customer Case Study

Using XMPro, the world's largest potash mining company rapidly composed and deployed a predictive maintenance solution for over 50 miles of underground conveyors in just 30 days, achieving $10 million in savings every year by reducing unplanned downtime by over 30%.

VERIFIED RESULT — ENTERPRISE SCALE
6 Sites with in-house adoption
1,000+ Assets monitored
35+ Operational, tactical and strategic use cases

Customer Case Study

XMPro enabled the in-house engineering team at a major North American miner to independently compose 35 operational, tactical and strategic solutions across six sites, scaling to monitor and manage over 1,000 diverse critical assets.

"XMPro successfully triggered a real predictive maintenance alert for a Haul Truck that appears to have a Strut issue - This was particularly impressive, considering we have only deployed the development environment a few weeks ago"

-- Advanced Predictive Maintenance Lead, major global mining company

AUTONOMOUS OPERATIONS

Now pushing the frontier.

MAGS agents are achieving what no other industrial platform has demonstrated — sustained autonomous operations at enterprise scale.

0+
Days Autonomous
Safety-critical petrochemical operations
3-0+
Agents Per Team
Specialized agents coordinating per use case
0+
Teams Deployable
Scale across sites and business units
0%
Governed
Every agent, every decision, every action — auditable

SCOPE FOR YOUR SITE

Let’s scope this for your operation.

Talk to an XMPro engineer about your environment, your starting HAS level and the lever that matters most — or browse more solutions.