This paper presents a novel distributed architecture designed to spawn digital twin solutions to improve energy efficiency in energy-intensive industrial scenarios. By executing user-defined workflows, our platform enables the implementation of real-time monitoring, forecasting, and simulation microservices to enhance decision-making strategies for optimizing industrial processes. Leveraging a stateless centralized orchestration mechanism built around an Apache Kafka-based backbone, the platform ensures scalability, fault tolerance, and efficient handling of heterogeneous data. Key features include intuitive workflow configuration, asynchronous communication for streamlined workflow execution, and API-driven scheduling for dynamic, event-based task management. This platform will be deployed and validated in several energy-intensive industrial scenarios, supporting the management of energy systems of different plants, to prove its effectiveness across a wide range of energy management challenges.
A Distributed Event-Orchestrated Digital Twin Architecture for Optimizing Energy-Intensive Industries / Bertozzi, Nicolò; Geraci, Anna; Bergamasco, Letizia; Ferrera, Enrico; Pristeri, Edoardo; Pastrone, Claudio. - (2025), pp. 337-344. (Intervento presentato al convegno 10th International Conference on Internet of Things, Big Data and Security (IoTBDS 2025) tenutosi a Porto (Portugal) nel 6-8 April, 2025) [10.5220/0013364400003944].
A Distributed Event-Orchestrated Digital Twin Architecture for Optimizing Energy-Intensive Industries
Geraci, Anna;Bergamasco, Letizia;Ferrera, Enrico;
2025
Abstract
This paper presents a novel distributed architecture designed to spawn digital twin solutions to improve energy efficiency in energy-intensive industrial scenarios. By executing user-defined workflows, our platform enables the implementation of real-time monitoring, forecasting, and simulation microservices to enhance decision-making strategies for optimizing industrial processes. Leveraging a stateless centralized orchestration mechanism built around an Apache Kafka-based backbone, the platform ensures scalability, fault tolerance, and efficient handling of heterogeneous data. Key features include intuitive workflow configuration, asynchronous communication for streamlined workflow execution, and API-driven scheduling for dynamic, event-based task management. This platform will be deployed and validated in several energy-intensive industrial scenarios, supporting the management of energy systems of different plants, to prove its effectiveness across a wide range of energy management challenges.Pubblicazioni consigliate
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https://hdl.handle.net/11583/2999249