AI-Driven Digital Twin for Predictive Data Center Cooling
Data centres generate enormous amounts of thermal data, but traditional monitoring systems only reveal what is happening at individual sensor locations.
What if you could predict future temperature behaviour, identify hotspots before they occur, and optimize cooling systems proactively?
Discover how CADFEM combines physics-based simulation, artificial intelligence, and real-time sensor data to create a predictive digital twin that enables smarter, more energy-efficient data centre operations.
Why Traditional Monitoring Is No Longer Enough
Most data centers rely on distributed temperature sensors to monitor cooling performance. While valuable, sensor data provides only a partial view of the thermal environment.
Limited Visibility Between Sensors
Sensors only report what they touch. The thermal behaviour between, above and below them stays invisible.
No Prediction of Future Conditions
Traditional monitoring shows you the current state — not where temperatures, loads and hotspots will be in the next minutes or hours.
Delayed Response to Emerging Hotspots
By the time an alarm fires, the hotspot is already affecting equipment. There is no headroom to act before the impact.
Difficulty Optimizing Cooling Energy
Without a forward view of demand, cooling systems are tuned to worst-case assumptions — and burn energy doing it.
As power densities continue to increase, operators need more than monitoring — they need prediction.
Introducing the AI-Driven Digital Twin
Our approach combines physics-based simulation, artificial intelligence and real-time sensor data into a single predictive system.
- Physics-Based CFD Simulation. Captures detailed airflow and temperature behavior throughout the data center.
- Artificial Intelligence. Learns complex thermal patterns and predicts future operating conditions.
- Real-Time Sensor Integration. Continuously calibrates predictions using live operational data.
Together, these technologies create a digital twin capable of forecasting thermal behavior before critical conditions arise.
Stream live operational data
Real-time sensor integration continuously calibrates predictions using live operational data, so the digital twin reflects what is actually happening on the floor — not what happened yesterday.
Build the CFD foundation
CFD-based thermal modeling captures detailed airflow and temperature behavior throughout the data center — a high-fidelity simulation of cooling systems and heat-generating equipment.
Forecast hot spots before they form
AI models — including the Temporal Fusion Transformer (TFT) — learn complex thermal patterns and forecast hotspots before they occur, so operators see what is coming and act ahead of it.
Calibrate continuously, optimize proactively
Moving Horizon Estimation (MHE) keeps predictions aligned with reality using live sensor measurements, while Digital Twin Analytics gives operators continuous visibility into current and future thermal conditions.
What You'll Learn in the Video
In this video, you'll discover:
- How CFD simulation creates the thermal foundation of the digital twin
- How AI models learn from simulation and operational data
- How Moving Horizon Estimation (MHE) keeps predictions aligned with reality
- How future hotspots can be predicted before they occur
- How operators can reduce cooling energy consumption while improving reliability
Business Benefits
Organizations can use AI-driven digital twins to move from reactive monitoring to proactive decision-making.
Reduce Cooling Energy Costs
Optimize fan and cooling system operation based on predicted demand.
Improve Reliability
Identify thermal risks before equipment is affected.
Extend Equipment Life
Maintain optimal operating conditions across critical infrastructure.
Enable Predictive Operations
Move from reactive monitoring to proactive decision-making.