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INDUSTRIAL APPLICATION · OPERATIONAL DRIFT DETECTION

Operational Drift Detection for Thermal Power Plants

Drift is the dominant mechanism through which thermal power plant efficiency erodes. ControlAlign™ makes drift detection deterministic — reconstructed from the unit's own historian record, against its own demonstrated reference state.

Performance driftHeat rate driftThermal-state driftReference-state deviationHistorian-derivedAudit-grade
INDUSTRY CONTEXT

Why drift is rarely detected in time

Thermal power plant performance does not collapse — it drifts. The mechanisms are gradual, distributed across the unit, and frequently masked by load, ambient and fuel variability. By the time drift is visible in routine performance reporting, it has typically been present, accumulating, for months.

Conventional drift detection relies on periodic performance tests, KPI thresholds and engineering judgement. These are valuable, but they are not continuous, and they are rarely normalized against the unit's own demonstrated optimum.

FRAMEWORK

Drift as deviation from demonstrated reference

ControlAlign™ interprets drift as deterministic deviation from the unit's best demonstrated performance envelope — reconstructed continuously from the historian record and normalized for load, ambient and fuel quality.

Drift indicators are engineering-reviewable, not inferred. They are traceable to specific historian tags and to a specific reference state revision. This is the operational interpretation discipline that sits beneath heat rate improvement and thermal power plant efficiency outcomes.

ARCHITECTURE

How drift detection is delivered

Read-only, deterministic, and continuous across the operating life of the unit.

01

Historian extraction

Read-only ingestion from PI / Aveva / GE Proficy historians.

02

Load & ambient normalization

Isolation of true thermodynamic drift from operational variability.

03

Reference-state reconstruction

The unit's own best demonstrated performance envelope, derived from its historian record.

04

Deterministic deviation interpretation

Continuous identification and quantification of deviation, with engineering-reviewable causation.

05

Fleet-scale drift comparability

Cross-unit, cross-site visibility of drift severity and recoverable performance.

06

Audit-grade reporting

Every drift indicator traceable to source historian tags and reference state revision.

OPERATIONAL OUTCOME

What continuous drift detection delivers

POSITIONING

Deterministic drift interpretation — not anomaly inference

ControlAlign™ does not infer anomalies from opaque models. It reconstructs the unit's reference state and interprets deviation from it deterministically — historian-derived, reproducible and audit-grade.

Enterprise Engagement

Move from generic industrial AI to deterministic operational reference alignment

ControlAlign™ is the historian-derived operational reference-alignment layer for thermal power fleets. Request an operational assessment against your own historian environment.

Industrial Applications · ControlAlign™
Industrial Thermodynamic IntelligenceThermal-State DiagnosticsIndustrial Heat-Transfer IntelligenceProcess Thermal StabilityIndustrial Operational ThermodynamicsIndustrial Energy Systems OptimisationProcess Heat & Energy-Intensity OptimisationCombustion & Radiative Coupling Optimisation