Statistics and mathematical optimization are not generative AI, but they often deliver the fastest operational impact. They help teams detect equipment degradation earlier, spot process deviations, and plan production and logistics more effectively.
How it works
Data from thousands of sensors flows through OPC-UA into the historian. Statistical models continuously analyze trends and detect deviations from normal behavior. For optimization, the problem is formalized mathematically - constraints, resources, and objective - and the solver searches feasible combinations to find the best plan.
Weaknesses
These methods work best in familiar conditions: if the data pattern changes, the model can fail. Optimization also depends on precise problem formulation - a wrong constraint produces a wrong optimum.
Sub-technologies (3)
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Monitoring & Diagnostics
5 applications
Pilot process monitoring
Manufacturing / Operations · Prototype
Production monitoring and anomaly diagnostics
Quality & Testing · Production
Installed-base monitoring and remote diagnostics
Service & Maintenance · Service
Warranty and field-failure trend analytics for quality strategy
Quality & Testing · Strategy
Field-failure Pareto analysis for design rule updates
Quality & Testing · Design
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Predictive Maintenance
2 applications
Production-phase maintenance planning
Service & Maintenance · Production
Failure prediction in service and asset support
Service & Maintenance · Service
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Mathematical Optimization
9 applications
Constraint-aware design trade-off optimisation
Engineering & Simulation · Design
Portfolio and resource scenario optimization
Marketing & Sales · Strategy
Prototype procurement and trial material planning
Supply Chain & Procurement · Prototype
Supply and production planning optimisation
Supply Chain & Procurement · Production
Shop-floor scheduling and resource balancing
Manufacturing / Operations · Production
Service logistics and spare inventory optimisation