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 · IRON & STEEL

Cooling towers monitored as a continuous operating signal.

Cooling towers carry process temperatures across iron and steel operations — and when fin-fan performance drifts quietly, energy use climbs and downstream process efficiency drops before anyone sees a cause. The XMPro AO Platform monitors every cooling tower fan in real time, predicts the maintenance window, and ties fan performance to plant-wide energy efficiency.

THE CHALLENGE

What's getting in the way today.

Cooling-tower performance sits at the centre of process stability and energy cost. Five pressures compound:

ISSUE 01 OPEN

Inefficient performance monitoring

Manual fan checks are time-consuming and miss the drift signals that lead to inefficiency and rising operational cost.

ISSUE 02 OPEN

Unplanned downtime

Fan failures, reduced airflow or suboptimal cooling go unnoticed without real-time monitoring — production takes the hit before maintenance does.

ISSUE 03 OPEN

Maintenance guesswork

Without detailed operational data, fan maintenance either over-services healthy assets or misses degradation already underway.

ISSUE 04 OPEN

Energy consumption

Cooling towers are major plant energy consumers — without per-fan baselines, inefficiency hides in the aggregate utility bill.

ISSUE 05 OPEN

Compliance and safety

Continuous monitoring is required to maintain environmental compliance and safe operating conditions as ageing fans drift outside spec.

THE SOLUTION

Cooling Tower Fin Fan Monitoring — how it works.

A live operational picture of every cooling tower fin fan — fed by the sensors already on the asset, modelled as a digital twin and tied to predictive maintenance and energy optimisation.

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

The platform integrates fan vibration, noise, airflow rate, motor power consumption, cooling-tower water temperature and overall fan efficiency continuously. A digital twin of the cooling tower lets operators visualise current state and predict future performance. ML models analyse historical and real-time telemetry to predict maintenance needs and trigger condition-based work, with customisable workflows that can automatically adjust fan speeds or escalate to crew when thresholds are breached. Dashboards surface per-fan trends, energy-efficiency baselines and compliance status, with drill-down to individual assets for investigation.

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.

Predicted maintenance, planned outages

Fan degradation surfaces ahead of failure so cooling-tower work moves into planned outage slots rather than emergency response.

Energy efficiency made visible

Per-fan baselines turn the cooling-tower energy bill from a sunk cost into a leverable line item.

Compliance as a by-product

Continuous environmental monitoring keeps regulatory and safety standards in scope without a separate inspection programme.

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.