The large-scale deployment of pervasive sensors and decentralized computing in modern smart grids is expected to exponentially increase the volume of data exchanged by power system applications. In this context, the research for scalable and flexible methodologies aimed at supporting rapid decisions in a data rich, but information limited environment represents a relevant issue to address. To this aim, this paper investigates the role of Knowledge Discovery from massive Datasets in smart grid computing, exploring its various application fields by considering the power system stakeholder available data and knowledge extraction needs. In particular, the aim of this paper is dual. In the first part, the authors summarize the most recent activities developed in this field by the Task Force on “Enabling Paradigms for High-Performance Computing in Wide Area Monitoring Protective and Control Systems” of the IEEE PSOPE Technologies and Innovation Subcommittee. Differently, in the second part, the authors propose the development of a data-driven forecasting methodology, which is modeled by considering the fundamental principles of Knowledge Discovery Process data workflow. Furthermore, the described methodology is applied to solve the load forecasting problem for a complex user case, in order to emphasize the potential role of knowledge discovery in supporting post processing analysis in data-rich environments, as feedback for the improvement of the forecasting performances.

A review of the enabling methodologies for knowledge discovery from smart grids data / De Caro, Fabrizio; Andreotti, Amedeo; Araneo, Rodolfo; Panella, Massimo; Rosato, Antonello; Vaccaro, Alfredo; Villacci, Domenico. - In: ENERGIES. - ISSN 1996-1073. - 13:24(2020), pp. 1-25. [10.3390/en13246579]

A review of the enabling methodologies for knowledge discovery from smart grids data

Rodolfo Araneo
;
Massimo Panella;Antonello Rosato;
2020

Abstract

The large-scale deployment of pervasive sensors and decentralized computing in modern smart grids is expected to exponentially increase the volume of data exchanged by power system applications. In this context, the research for scalable and flexible methodologies aimed at supporting rapid decisions in a data rich, but information limited environment represents a relevant issue to address. To this aim, this paper investigates the role of Knowledge Discovery from massive Datasets in smart grid computing, exploring its various application fields by considering the power system stakeholder available data and knowledge extraction needs. In particular, the aim of this paper is dual. In the first part, the authors summarize the most recent activities developed in this field by the Task Force on “Enabling Paradigms for High-Performance Computing in Wide Area Monitoring Protective and Control Systems” of the IEEE PSOPE Technologies and Innovation Subcommittee. Differently, in the second part, the authors propose the development of a data-driven forecasting methodology, which is modeled by considering the fundamental principles of Knowledge Discovery Process data workflow. Furthermore, the described methodology is applied to solve the load forecasting problem for a complex user case, in order to emphasize the potential role of knowledge discovery in supporting post processing analysis in data-rich environments, as feedback for the improvement of the forecasting performances.
2020
smart grids computing; knowledge discovery; power system data compression; high-performance computing
01 Pubblicazione su rivista::01a Articolo in rivista
A review of the enabling methodologies for knowledge discovery from smart grids data / De Caro, Fabrizio; Andreotti, Amedeo; Araneo, Rodolfo; Panella, Massimo; Rosato, Antonello; Vaccaro, Alfredo; Villacci, Domenico. - In: ENERGIES. - ISSN 1996-1073. - 13:24(2020), pp. 1-25. [10.3390/en13246579]
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Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/11573/1466603
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