The increasing complexity of modern industrial plants, combined with the availability of large volumes of sensor and process data, has opened unprecedented opportunities for the application of Artificial Intelligence in process engineering. At the same time, safety and regulatory requirements impose stringent constraints on the transparency and interpretability of automated decision-support systems deployed in critical environments.
Purely data-driven models may struggle when extrapolating beyond the operating conditions represented in the training data, particularly with noisy measurements, limited fault examples, or evolving process behaviour. Physics-informed and hybrid AI approaches are becoming increasingly important: by embedding first-principles models into learning architectures, these methods offer a route towards more robust, data-efficient, and physically consistent models for process engineering.
Incorporating physical knowledge does not remove the need for explainability. Physics-informed neural networks, hybrid digital twins, and constrained learning systems may still include opaque data-driven components and complex interactions between mechanistic and learned representations. A further dimension of growing importance concerns the resilience and security of industrial control systems and cyber-physical systems, where explainability is often necessary to distinguish physically meaningful deviations from sensor faults or cyber-attacks.
XAIPE provides a dedicated forum at the intersection of artificial intelligence, process engineering, industrial safety, and cyber-physical system security. The workshop welcomes contributions that advance explainable, physics-aware, trustworthy, and deployable AI methods for industrial processes — spanning the chemical industry, pharmaceuticals and biotechnology, food and beverages, energy production and storage, water and waste treatment, metallurgy and advanced materials, and other safety-critical systems.
Explainable AI
Physics-informed ML
Process engineering
Fault diagnosis
Industrial cybersecurity
Digital twins