Atelic tests AI that cuts industrial energy use by 4.7%

Serge Bulaev
Atelic has tested a smart AI system that helps factories use less energy, cutting energy use by 4.7% on North Sea platforms. Instead of just showing engineers data, Atelic's AI makes real-time decisions by controlling machines automatically. This saves money and could mean huge energy savings wo

Atelic's recent test of an AI system that cuts industrial energy use by 4.7% on North Sea platforms signals a major shift in industrial automation. Simon Williams, Atelic's Chief AI Officer, argues that many energy firms miss significant gains by treating machine learning as a mere analytics tool. The true value is unlocked when AI algorithms move from dashboards into live control logic, actively managing industrial hardware second by second.
Beyond Dashboards: AI in Direct Control Loops
Atelic's AI system integrates directly with industrial control logic, moving beyond data analysis to autonomously adjust equipment like valves and pumps in real time. This continuous, millisecond-level optimization reduces energy consumption without manual intervention, directly improving operational efficiency and reducing fuel costs.
While traditional analytics platforms report on past performance, Atelic's agent makes autonomous decisions for future actions. It processes signals from thousands of sensors to write commands directly into supervisory control systems. This approach mirrors how real-time platforms steer smart grids to prevent blackouts, as detailed in recent Digital Adoption case studies. By running on edge devices, the model achieves millisecond latency, and a six-month pilot demonstrated a 4.7% reduction in aggregate fuel gas while maintaining strict safety parameters.
The Global Impact of a 4.7% Reduction
A nearly five percent energy cut may seem modest, but its impact is magnified across an industry consuming vast amounts of power. AI-driven optimizers in the oil, gas, and power sectors could yield annual global savings of 300-600 TWh - equivalent to Spain's total electricity use, according to a UNECE compendium. For facilities facing carbon prices over €90 per tonne, each percentage point saved directly boosts profit margins.
Key Lessons from the North Sea Pilot
Engineers overseeing the trial identified three critical design choices that drove its success:
- Edge Deployment: Locating the AI near controllers ensured data privacy and eliminated network latency.
- Hybrid Modeling: An ensemble of physics-based models and neural networks detected sensor drift before it could trigger incorrect actions.
- Robust Fail-Safe: A dedicated safety layer could revert all systems to manual control within 200 milliseconds if anomalies were detected.
Overcoming Barriers to Scalable AI Deployment
As the technology scales, efficiency remains paramount. Williams highlights the core challenge: "If your optimizer burns more power than it saves, you have built a heater with extra steps." This underscores the need for computationally lean algorithms that deliver a net energy saving.
The Future of Atelic's AI: Renewables and Grid Integration
Atelic is now adapting its AI agent for renewable energy assets, where rapid weather fluctuations make manual dispatch difficult. Field tests scheduled for 2026 will pair the controller with battery farms, allowing storage to smooth out volatile power generation from turbines. This mirrors prediction-plus-action loops that grid operators use to manage solar arrays and EV chargers, which have been shown to cut peak demand by up to 20% in a Brookings study. For now, Williams insists that if an AI is only drawing charts instead of writing commands, it remains off his roadmap.